Standard Appraisal Brief for the Graduate Diploma, MSc, MES, and PhD Programs

in

ENVIRONMENTAL SCIENCES

Submitted to the Ontario Council on Graduate Studies December 2010

VOLUME I: The Program

OCGS APPRAISAL BRIEF - [Environmental Sciences] page 2

THE PROGRAM

1. INTRODUCTION ...... 3 1.1. Brief listing of programs ...... 3 1.2. Objectives of the programs...... 4 1.3. Method used for the self-study as well as the preparation of the brief, including faculty and student input and involvement ...... 5 1.4. Fields in the programs (indicate recent changes if any) ...... 6 1.5. Review concerns expressed in previous appraisal and actions taken...... 7 1.6. Special matters and innovative features...... 12 2. THE FACULTY...... 14 2.1. List of faculty by field ...... 14 2.2. External operating research funding...... 20 2.3. Graduate supervision...... 23 2.4. Current teaching assignments ...... 30 2.5. Commitment of faculty members from other graduate programs and/or from other institutions…...... 48 3. PHYSICAL AND FINANCIAL RESOURCES...... 51 3.1. Library resources...... 51 3.2. Laboratory facilities...... 51 3.3. Computer facilities ...... 52 3.4. Space…… ...... 52 3.5. Financial support of graduate students...... 53 4. PROGRAM REGULATIONS AND COURSES ...... 56 4.1. The intellectual development and the educational experience of the student ...... 56 4.2. Program regulations ...... 58 4.2.1 General…………………………………………………………………………………………….58 4.2.2 Admission Standards…………………………………………………………………………….58 4.2.3 Degree Requirements ...... 60 4.2.4 Regulations for Thesis ...... 61 4.2.5 Progress Reports ...... 63 4.2.6 Language Requirements...... 63 4.2.7 Distance Delivery ...... 63 4.3. Part-time studies...... 64 4.4. Total graduate courses listed and level ...... 64 4.5. Collateral and supporting departments...... 70 5. OUTCOMES ...... 70 5.1. Enrolment and graduations...... 70 5.1.1 MSc……………………………………………………………………………………………….. 70 5.1.2 PhD……………………………………………………………………………………………….. 80 5.2. Employment...... 87 5.3. Publications ...... 87 5.4. Projected graduate intake and enrolments ...... 87

6. APPENDICES …………………………………………………………………………………… 90

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1. INTRODUCTION

This brief represents a proposal for a new graduate program (MSc, PhD, Coursework Masters, and Graduate Diploma) to be offered by the recently formed School of Environmental Sciences at the University of Guelph. The School of Environmental Sciences draws together two existing graduate programs that are successful and approved by the OCGS: Land Resource Science and Environmental Biology. The graduate program proposed in this Brief represents a strategic and progressive formalization of several complementary research areas in the physical and natural sciences within the former two departments into a single cohesive multidisciplinary graduate program. Once the new program has been approved, the existing programs in Land Resource Science and Environmental Biology will be phased out and no further students will be accepted into them. Students within the existing program at the time of approval will be offered the opportunity to transfer into the new Environmental Sciences program or remain with the existing program.

1.1. Brief listing of programs The master’s program will lead to the degree(s) of Master of Science (MSc) and Master of Environmental Science by coursework (MES). The doctoral program will lead to the degree of PhD in Environmental Science. Completion of the current and new programs prepares students for careers in both academic and non-academic settings.

This submission for a new graduate program in the School of Environmental Sciences (SES) is the result of the merger of two former departments within the Ontario Agricultural College, Environmental Biology and Land Resource Science, and the Faculty of Environmental Sciences in September 2009 (herein referred to as “the merger”). All faculty members from these units became members of the School of Environmental Sciences at that time.

Core faculty in the School of Environmental Sciences currently participate in the approved MSc and PhD programs from the two founding departments (descriptions can be found at): http://www.uoguelph.ca/registrar/calendars/graduate/current/gradprog/envb.shtml http://www.uoguelph.ca/registrar/calendars/graduate/current/gradprog/lrs.shtml

In addition, faculty members in the former Land Resource Science program participate in a Masters by coursework degree: http://www.uoguelph.ca/registrar/calendars/graduate/current/gradprog/lrs-msc.shtml

The Environmental Biology program was reviewed in 2002 by OCGS and classified as Good Quality. The Land Resource Science (LRS) program was reviewed by OCGS in 2007 and classified as Good Quality with Report. The latter standing has not changed and a report to address reviewers concerns was not submitted as an extension was granted by OCGS due to the pending merger. Concerns raised as part of the 2007 LRS review are addressed in the current Brief in section 1.5 and were considered in the development of new program guidelines.

In addition to the proposed MSc, PhD, MES, and Graduate Diploma in Environmental Science, the School participates in the following inter-departmental programs (details in section 4):

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 MSc and PhD in Toxicology – collaborative program

 Biophysics Interdepartmental Group

1.2. Objectives of the programs The SES Graduate Program will offer comprehensive studies toward a Graduate Diploma and MSc, MES, and PhD degrees. The MSc and PhD degrees will involve research that seeks to increase our understanding of biological and physical processes, and their interactions, at all levels of biological organization. The SES Graduate Program will build on the high quality already established in the former department programs by fostering excellence in experimental work and mathematical modeling in the laboratory and field, and emphasizing our strong capacity to link theoretical and applied aspects of the environmental sciences. The Graduate program in the SES will provide additional theoretical and practical breadth for all students through the development of new courses in support of the new MES degree. Students admitted to the SES Graduate Program come from a wide variety of backgrounds including (but not limited to) chemistry, ecology, entomology, geology, microbiology, molecular biology, physics, plant biology, toxicology, and zoology. The new program is designed to position students to be successful in all avenues they might pursue in the field of environmental science. It is expected that the graduates of the SES program will provide leadership in research and training in academic, government, and industrial sectors of society and who will participate in the formulation and implementation of constructive national and international science policy.

The University of Guelph has established a series of Learning Objectives that define the expected characteristics and skills of its graduate students: literacy, numeracy, a sense of historical development, global understanding, moral maturity, understanding forms of inquiry, depth and breadth of understanding, independence of thought, and love of learning. The Graduate Program in the SES is designed to meet these objectives, along with the following additional goals:

 To provide graduate students with comprehensive education, knowledge, technical skills, and training in the area of environmental sciences so that they may play leading roles in helping to address existing and future environmental problems in Canada and around the world.

 To foster academic and intellectual growth, and interactions between the graduate students and faculty, the university and the wider research community, and the public.

 To ensure that students can effectively communicate their knowledge both orally and in writing

 To advance and encourage the growth of the SES and interdepartmental programs through continual review and incorporation of new and emerging developments in the field of environmental science.

Graduate Diploma Program: The objective of the Graduate Diploma is to provide highly focused training, education, and practical experience in specific areas of expertise within the SES. The Graduate Diploma will be targeted to recent undergraduate students, graduate

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students, and professionals seeking enhanced practical knowledge and experience associated with the application of technologies and methods used in the emphasized areas.

MES Program: The objectives of the SES MES (Coursework Master’s) program is to provide a foundation on which students and professionals can study the most recent theoretical and technical advances in the environmental sciences through interdisciplinary (depth) and multidisciplinary (breadth) teaching and research. Through coursework and a project, the SES MES is designed to promote critical thinking and enhance oral and written communication skills so that graduates can excel in industry, government and other sectors of society (e.g., environmental risk assessors/managers, political advisors on policy/law issues in government, senior positions in national and international agencies, etc.).

MSc program: The objective of the SES MSc program is to develop and train graduate students that possess a high level of knowledge about the field of environmental science, expertise in specific aspects of environmental science (their thesis research focus), training in laboratory and field techniques, and excellence in writing and oral communication. With these skills, SES MSc students will possess a strong foundation on which they can be highly successful in science-related positions in government, industry, and consulting, or carry out high quality research at the PhD level.

PhD Program: The objectives of the SES PhD program are to develop highly competent, independent, creative, and critical scientists. Doctoral students of the SES Graduate Program will provide leadership as scholars in academic institutions, as managers and officers in the industrial research and development sector, research and policy branches within the government sector and in other social institutions. Research in the PhD program is expected to be original and novel, contribute significantly to the relevant research field, and published in high-quality peer-reviewed journals.

The goals and objectives of the SES Graduate Program will be achieved through laboratory and field research, course work, seminar and workshop participation and presentation, projects and/or placements (in the MES program), completion of qualifying examinations (in the PhD program), thesis writing, and thesis defence, publication of scholarly and extension (educational) material.

1.3. Method used for the self-study as well as the preparation of the brief, including faculty and student input and involvement The School has made a concerted effort to include all interested parties in the process leading to the submission of this brief.

The proposal to apply for a new graduate program in Environmental Sciences was initiated in the fall of 2009 following the merger. A Graduate Studies Committee consisting of faculty members from both former departments and student and staff representatives was composed and charged with developing the new program guidelines. These guidelines were developed within the context of the concerns listed in section 1.5. The recommended guidelines were approved by the School during the summer semester of 2010.

In addition to representation as part of the Graduate Studies Committee, graduate student participation in the development of this brief was accomplished through requests for information from the students via a comprehensive electronic survey. Information provided by Graduate

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Program Services (University of Guelph) and anecdotal information gained from personal conversations and interviews with students and staff were also included.

As part of the development of this review, the Graduate Studies Committee completely revised its Graduate Studies Policy and Procedures handbook which is available on-line (http://www.uoguelph.ca/ses/sites/uoguelph.ca.ses/files/SES_Graduate_Policies_and_Guideline s.pdf). Further, promotional material (flyers, pamphlets, etc) are in the planning stages to allow us to more actively promote the SES to prospective graduate students.

The Chair of the Graduate Studies Committee then drafted this appraisal brief, and made it available to all faculty, students, and staff for review. It was also be reviewed by the Dean of Graduate Studies and the Dean of the Ontario agricultural College. Approval of the program by the University’s Board of Graduate Studies and the University of Guelph Senate is pending.

1.4. Fields in the programs (indicate recent changes if any) The development of the proposed fields of study is based on careful consideration of the existing OCGS-approved MSC and PhD programs in the founding departments of the SES. The existing fields in Land Resource Science are:

 Atmospheric Science - Emphasizes issues related to trace gas exchange between the surface and the lower atmosphere. Expertise includes the physical and biological processes controlling emissions and uptake, effects of management on such processes, the physics of transport into the atmosphere, techniques for measuring and modeling exchange, the chemistry that occurs in the surface layer of the atmosphere, and the relation of these trace gases and processes to climate change and air quality.

 Environmental Earth Science - Emphasizes diverse research interests in fundamental and applied aspects of agrogeology, sedimentology, stratigraphy, geobiology and geochemistry, including investigations on soil nutrient fate and effects, mineral characterization and soil structure, metal and isotope analyses, and molecular biology.

 Land Resources Management - Emphasizes ways to manage the Earth's resource in an environmentally responsible manner. Areas of investigation include the management of landfills, the agronomic impacts of linear facilities on agricultural lands in Ontario, assessing farmland protection policy options and determining the attitudes of landowners and foresters to woodlot management.

 Soil Science - Emphasizes research in areas such as soil biology, soil chemistry, soil physics, soil management and soil fertility.

The existing fields in Environmental Biology are:

 Entomology - emphasizes systematics, ecology, physiology, behaviour and pest management strategies as they relate to toxicology, insecticide resistance management, agro-ecosystem impact on non-target beneficial , climate change, and biological, genetic and cultural control tactics.

 Environmental Microbiology and Biotechnology - Emphasizes the physiology, ecology and biochemistry of microorganisms with potential for environmental or biotechnological

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applications. It also includes studies on microbial pathogen detection, bioproducts, and environmental applications of microbial forensics, recombinant antibodies, and in plant expression of antibodies.

 Environmental Toxicology - Emphasizes how terrestrial and aquatic organisms interact with toxic compounds in the environment, describes the methods and tools needed to assess environmental impacts, and emphasizes practical management solutions to address environmental problems.

 Plant and Forest Systems - Emphasizes the ecology and genetics of plant pathogens, plant disease resistance and epidemiology, the genomics and molecular biology of plant- pathogen interactions, and the development of new plant disease management strategies, such as the use of chemical, cultural and biological control agents.

 Plant Pathology - Emphasizes the ecology and genetics of plant pathogens, plant disease resistance and epidemiology, the genomics and molecular biology of plant- pathogen interactions, and the development of new plant disease management strategies, such as the use of chemical, cultural and biological control agents.

The proposed Environmental Sciences PhD program will contain the following three fields (with a brief description of the research areas conducted within each field).

 Earth and Atmospheric Sciences – Research areas include: soil biology and soil physics, sedimentology, geobiology, soil chemistry, geochemistry, atmospheric chemistry and air quality, soil and land resource management

 Ecosystem Science and Biodiversity – Research areas include: toxicology, pest management, management of agroecosystems, microbiology, forest systems, agroforestry, climate change biology, ecology, and insect systematics and

 Plant & Environmental Health – Research areas include: plant biology, plant pathology, epidemiology, soil-plant interactions, biotechnology, molecular biology, forest systems, agroforestry, and climate change biology

Fields of study have not been designated for the MSc or MES programs.

Our objective was to identify broad field designations rather than ones with a narrow focus whose viability might be impacted dramatically by changes in research trends and faculty retirements. As might be anticipated for such a cross-cutting approach, some of the research areas are applicable to each field, depending on faculty interests and experimental emphases.

1.5. Review concerns expressed in previous appraisals and actions taken Although this brief proposes a new program, some of the issues raised in the last OCGS reviews of Environmental Biology and Land Resource Science are still relevant. These are described below.

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Environmental Biology The graduate program in Environmental Biology was last review in 2002 and given the rating of “Good Quality”. A couple of the issues raised as part of that report are pertinent to the current brief and are reviewed here.

Concern 1: Faculty renewal:

The consultants expressed concern about the reduced number of faculty in the department due to retirements.

Action Taken:

Since the 2002 assessment, the Department of Environmental Biology has added several new faculty:

1) Mike Dixon, Professor, Plant and Forests Systems (January 2003) 2) Jonathon Newman, Professor, Applied Ecology (August 2004) 3) Ernesto Guzman, Associate Professor, Apiculture (October 2004) 4) Marc Habash, Assistant professor, Aquatic Microbiology (January 2005) 5) Madhur Anand, Associate Professor, Canada Research Chair in Global Change Ecology (August 2007) 6) Shelley Hunt, Assistant Professor, Forest Systems Biologist (August 2007) 7) Neil Rooney, Assistant Professor, Food Web Ecology, (August 2009)

The distribution of faculty across the proposed fields of study (designated only for the PhD program) is summarized in Table 1. The addition of these faculty members has greatly strengthened teaching and research in the areas of two proposed fields of study: Ecosystem Science and Biodiversity (Anand, Hunt, Newman) and Plant & Environmental Health (Guzman, Habash, Dixon).

Concern 2: PhD Comprehensive Examination

The consultants found that the structure of the comprehensive exam (herein referred to as the qualifying examination) was “somewhat discretionary as it is usually conducted as an oral exam and the written component is used only occasionally” and recommended that more formal arrangements be developed.

Action Taken:

At the time of the report, Environmental Biology had two appraisal committees, one each for the MSc and PhD programs. The PhD qualifying examination consisted only of a choice consisting of a strictly oral examination or a combination of written and oral components. The latter, however, was rarely selected by students. In 2004, following a survey of students and faculty, the written component was made a mandatory component of the qualifying examination. As part of this change, the department created a single committee, the Graduate Education Committee, to oversee MSc and PhD defense and qualifying examination process. This committee consisted of the Graduate Coordinator and four other faculty members. As part of this re- structuring, the department implemented a change to the PhD qualifying examination process by implementing a standard written and oral component. Further, guidelines were developed to

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clearly articulate the planning, procedures, and expectations for qualifying examinations. A survey of graduate students (response rate of 96/157 = 61%) in both departments in 2010, in preparation of this brief, indicates that most are satisfied with the qualifying examination process.

Following the creation of the SES, the administration of graduate student activities, including admissions, awards, and examinations became the purview of the Graduate Studies Committee. This committee consists of four faculty members (two from each of the former departments) and two graduate students (one each from the former departments). This committee will be reviewing the PhD qualifying examination process to determine if and what additional changes are needed.

Land Resource Science

The graduate program in Land Resource Science was last reviewed in 2007 and given a designation of Good Quality with Report”. A response to the concerns raised by the consultants was not prepared (an extension was granted by the OCGS) pending the merger between Land Resource Science and Environmental Biology into the SES. It should be noted that some of the concerns raised were unique to LRS and some no longer apply following the merger. Nonetheless, each of the concerns is addressed below.

Concern 1: Core faculty compliment, renewal, and retirements

The consultants raised concerns about faculty renewal and gender balance, noting particular deficiencies in two of the four fields of study (two Category 1 faculty in Atmospheric Science and four Category 1 faculty in Earth Science).

Action Taken:

Since 2003, LRS hired several faculty members as part of a strategic effort to renew strengths in specific fields. New faculty include:

1) Susan Glasauer, Assistant Professor, Geology (Sept 2003) 2) Kari Dunfield, Associate Professor, Soil Microbiology (Jan 2004) 3) Laura Van Eerd, Associate Professor, Soil Nutrient Management (Aug 2005) 4) Tom Rennie, Assistant Professor, Renewable Energy (Sept 2007; Dr. Rennie is located at the Kemptville campus of the Uiniversity of Guelph) 5) Rob Nicol, Assistant Professor, Bioenergy Production (Nov 2007; Dr. Nicol is located at the Ridgetwon campus of the Uiniversity of Guelph) 6) Christian Blodau, Tier 2 Canada Research Chair & Associate Professor, Geochemistry (Sept 2009)

The distribution of these faculty members across the proposed fields of study is summarized in Table 1. With the exception of Atmospheric Science, these hires were strategically spread across three of the four previous fields of study in LRS, greatly strengthening representation in each. The addition of Blodau greatly strengthened the Earth Science field as recommended in the 2007 review. Although new hires were not made in the field of Atmospheric Science, this field has been eliminated in the current brief in favour of the more inclusive designation of Earth and Atmospheric Science. Collectively, these hires addressed another, related, concern raised

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by the consultants - that new faculty should constitute “suitably multi-faceted individuals”. The above-listed faculty meet these criteria; indeed, the new faculty in LRS encompassed three of the four fields of study, and in many cases, the new faculty could be listed under more than one field of study. Moreover, they will contribute significantly to all three proposed fields study in the PhD program: Ecosystem Science and Biodiversity (Dunfield, Blodau), Earth and Atmospheric Sciences (Dunfield, Glasuaer, Van Eerd, Rennie, and Nicol) and Plant Health and Environment (Van Eerd, Rennie, Nicol).

Finally, three of the six faculty hired were female, addressing another concern pertaining to faculty renewal in LRS - that an effort be made to increase the proportion of female faculty.

Concern 2: Program content and requirements, journal publication issues, and courses in Earth Science

The consultants raised concerns about the lack of a requirement for coursework at the PhD level and the content of the one required course, Research Issues. They also expressed concern about the lack of courses in the field of Earth Science, low publication rates of graduate students, and the manner in which field research was conducted.

Action Taken:

The lack of coursework requirements at the PhD level is common at most Canadian universities because emphasis is placed on research rather than coursework as is common among American universities (we note that one of the reviewers is from an American academic institution). In the proposed program, we will continue to require only one course for PhD students. This course represents a combination of the previous Research Issues course in LRS and the Introductory Seminar course in EVB. The consultants suggested that revisions to the Research Issues course should include preparation of research proposals. The combined course in fact requires students to prepare and present (defend) a proposal, with the final presentation being open to all faculty, staff, and students in the SES. The consultants also recommended that consideration be given to increasing the credit value of the required introductory course to 0.5 (it is currently worth 0.25 credits). Although this change has not been made, the graduate committee for SES will discuss making this change following discussions with faculty and students regarding the content of the course.

With one exception, additional courses in the field of Earth Science have not been developed, in part, because it is no longer a stand-alone field as it has been folded into the new field Earth and Atmospheric Science. However, as part of our planned curriculum renewal in support of the Coursework Masters and Graduate Diploma, one new field-based course in earth and soil science (Survey and Interpretation of Soils) has been created to augment existing courses in this area (see description in section 4.4).

Since the 2007 report, significant effort has been made to increase the rates of publications from students in LRS. Notably, students are encouraged to write their thesis using a journal paper format, which makes it much easier to publish with minimum re-organization of thesis text. Faculty have also made greater efforts to encourage students to submit their papers prior to defending their thesis.

Finally, the consultants recommended that a more directed approach be taken in relation to field work as many students were noted to spend at least two summers in the field. We are uncertain

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if this comment was based on concerns about duration of field-based students in the program or simply a recommendation as to how the field research might be conducted to answer questions that the reviewers felt were particularly important (which they cite in the report). While some of the example questions (areas of research) raised by the consultants are indeed highly relevant in the field of soil science, many relate to areas in which faculty in LRS already conduct research. Thus, we are uncertain how to respond to this issue.

Concern 3: Graduation rates and times to completion

Action taken:

The consultants noted that the mean time to completion for MSc students was seven semesters (they did not comment on the time to completion for PhD students) which is over the expected limit of six semesters. They recognized that this reflected the heavy field-based research conducted in LRS and did not register a concern about this aspect per se. However, they did express concern about students who leave for employment opportunities and either do not complete or greatly extend the duration of their degree. This is an on-going issue for which a resolution is difficult. It would be unfair to expect students to forgo opportunities for employment when they arise. Increasing pressure from the OCGS and the university to ensure that students graduate within designated time periods are forcing faculty to ensure that students defend on time. While this may help to meet the intended goal of defending in a timely fashion, it remains to be seen whether this will result in theses of reduced quality, a concern raised by the consultants.

Concern 4: Space, facilities, library

Action Taken:

The consultants clearly noted the deep-seated and ongoing concern that has remained unresolved for many years in expressing their concerns over the space constraints and structural inadequacy and of the Richard’s building in which LRS was housed. At the time of the report, the move to Alexander Hall (formerly Axelrod Building) was a distant possibility so the consultants focused on recommendations related to retrofitting and improvement to the equipment and structure of the Richards building. After much delay, however, in the summer of 2010, this situation was resolved when LRS completed a move from the Richard’s building to the Alexander Hall. The new building is still undergoing renovations and some disruption continues to be experienced by faculty, students, and staff as they settle into their new location (this was noted as a strong possibility by the consultants). The renovations are expected to be completed by the spring of 2011 at which time the students of LRS will have a state-of-the art building and equipment facilities at their disposal to conduct their research.

The consultants were highly positive about the computing facilities available through LRS and the university library. These facilities will continue to be available to students through the SES (in both Alexander Hall and the Bovey Building, the two buildings on campus that house the SES faculty and students) and the university library.

Concern 5: Intake and enrolment plans, international students, and financial support for students

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The consultants commented that the number of students in LRS (approximately 25 MSc and 25 PhD at the time of the report) was somewhat modest and noted that many of these (~40%) would be graduating in the near future. At the time, LRS was in the process of developing a Coursework Master’s degree which was subsequently approved and first offered in September of 2008. With minimal advertising, a total of 10 students have since enrolled in this Coursework Master’s degree, helping to increase total student enrolment in LRS. As described later in this brief, this Coursework Master’s degree was used as the basis for a revised Coursework Master’s; one that is inclusive of all SES faculty and which we expect will be highly attractive to students and professionals.

The consultants also noted as a “praiseworthy contribution to the international community” the high proportion of international visa students in LRS and decried the lack of encouragement by the provincial government to enrol and support visa students in Ontario universities. With a similar proportion of international students comprising the graduate student population in EVB, the goal of the SES is to continue to encourage strong international representation among its graduate student population. In support of this philosophy, the SES has implemented a $3000.00 top-up for all international students. This effort should be greatly assisted by the recent announcement by the provincial government that increased subsidies will be made available to international students with the goal of increasing international student representation at Ontario universities.

The consultants also noted the lack of teaching assistantships for students and that those without scholarships (the majority in LRS) depended entirely on stipends from faculty grants. The consultants viewed the inability to off-set or supplement graduate student stipends as a significant constraint on the ability of faculty to attract greater numbers of graduate students. Both LRS and EVB (and the combined unit SES) continue to be limited in the number of teaching assistantships under their jurisdiction. However, recent changes in the SES to guarantee teaching assistantships and top-up scholarships to graduate students having scholarships has been implemented in order to encourage students of the highest academic quality to enrol in the SES.

1.6. Special matters and innovative features As Canada and the rest of the world are increasingly confronted by serious and complex environmental threats, the need to train students to develop the skill sets and intellectual capacity for broad-based problem-solving is critical. We believe that this can be most effectively achieved by training students using a combined multi-and-interdisciplinary approach; one that integrates the excellent science background of the SES faculty in the natural and physical sciences with a broader understanding of social science elements of the issue; and one that teaches students the importance of bridging science-policy gaps that currently constrain our capacity to adequately address many of these environmental issues. Since the last OCGS review, LRS added a Coursework Master’s program which we seek to expand in the current OCGS review to include Environmental Biology faculty. The SES graduate program will foster interdisciplinary collaboration both on and off campus. Because of the diverse nature of our faculty, and their research programs, SES graduate students will inevitably be exposed to areas of research outside their own. In addition to the core faculty within the SES, the graduate program is supported by faculty in the following academic departments: and Poultry Science, Biomedical Sciences, Chemistry, Engineering, Food and Resource Economics, Food Science, Geography, Integrative Biology, Molecular and

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Cellular Biology, Physics, and Plant Agriculture, and the School of Environmental Design and Rural Development. The SES also has numerous adjunct faculty members from government, industry, and academia who assist our graduate program by providing intellectual and physical resources for graduate students to conduct their research, participate in occasional teaching, and sit on student advisory committees. The SES also participates in the Collaborative Toxicology Program and the Biophysics Interdepartmental Group. Research in the SES extends from fundamental to applied. Many of the faculty members have been involved in intellectual property issues including patents and technology transfer. Many of our faculty are also heavily involved in extension education, primarily in relation to the southern Ontario farming community and the Ontario Ministry of Food and Rural Affairs. A core principle of the SES graduate program is that graduate students are provided opportunities to participate in these activities.

Graduate students in the SES have access to an exceptional range of research facilities. Facilities housed and operated by the SES include:

o The Insect Collection (http://www.uoguelph.ca/debu/). The insect collection is the oldest in Canada; at over 1.5 million specimens, it is third or fourth largest in Canada. This museum serves as a focal point for research on the taxonomy, systematic, and evolutionary relationship of insects from Canada and around the globe.

o The Honey Bee Research Center (http://www.uoguelph.ca/ ses/content/honey-bee- research-centre). This facility is used for research and teaching for both graduate and undergraduate students, for extension education and training of personnel in apiculture, and public demonstration activities. Additionally, the molecular biology laboratory serves as a reference laboratory for bee breeding and diagnosis of diseases and pests in Canada.

o Controlled Environment Systems Facility (CES: http://www.ces.uoguelph.ca/). The CES Research Facility and its Space and Advanced Life Support Agriculture (SALSA) program are an essential part of Canada's contributions to plant research and development for space and closed environment related activities. Its modern facilities and equipment provide excellent opportunities for graduate student research and training.

o The SES, in association with Plant Agriculture, also houses numerous large growth chambers for research on plant biology and plant-soil-organism interactions. Combined with the CES Research facility, and the availability of extensive greenhouse facilities, the SES has one of the most extensive controlled environment capabilities in Canada.

o The Model Aquatic Ecosystem Facility (Dr. Keith Solomon: http://www.uoguelph.ca/ ses/content/aquatic-ecotoxicology-microcosms). This outdoor research facility consists of 30, 12,000 L microcosms has been used for aquatic research initiatives ranging from fundamental ecology to the assessment of risks associated with emerging contaminants.

o The Agroforestry Research Station (Dr. Andrew Gordon). One of the oldest such centers in North America, this research site has been used extensively in graduate research and training pertaining to the use of trees in agriculture (inter-cropping, bioenergy production, etc).

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A more detailed explanation of these and other facilities is provided in section 3.2. These facilities range from open access, where users are trained by support staff/technicians, graduate and undergraduate students, or faculty and perform the work themselves to fee-for-service units and equipment.

Several SES faculty members currently hold independent salary awards in the form of Canada Research Chairs (CRCs): Dr. Christopher Hall (Recombinant Antibody Technology), Dr. Madhur Anand (Global Ecological Change), and Dr. Christian Blodau (Environmental Geology and Biochemistry). In addition, Dr. Beth Parker, an adjunct faculty in SES who is based in the Department of Engineering holds a NSERC IRC in Groundwater Hydrology. Dr. Neil Rooney is supported, in part, through a partnership with the Saugeen Ojibwa First Nations in a five-year contractually-limited appointment. The SES also houses two NSERC Strategic Networks: the Bioconversion network (http://www.nsercbioconversion.net/; Dr Hung Lee), whose research focuses on lignocellulosic biomass conversion to fuel ethanol and valuable industrial chemicals; and the CANPOLIN Network (http://www.uoguelph.ca/canpolin/; Dr. Peter Kevan) whose research is addressing the growing problem of pollinator decline in agricultural and natural ecosystems in Canada. The Metals in the Human Environments (MITHE; http://www.mithe-rn.org/index.cfm; Drs Len Ritter and Beverley Hale) whose mandate is to conduct research in support of science-based environmental and human health risk assessments for metals in water, soil and food has been housed in the SES for the past seven years.

Students in the SES are currently divided between two buildings – the Bovey Building and Alexander Hall. Alexander Hall is in the process of undergoing a $33.1 million structural renovation to implement state of the art research, equipment, and teaching facilities.

2. THE FACULTY

2.1. List of faculty by field Table 1 lists the faculty members involved in the SES graduate program, identifies their field of affiliation, indicates gender, and expected retirements in the next seven years.

As of 2010, the SES had a total of 40 full-time Category 1 faculty members. All are expected to contribute to the training and assessment of graduate students through direct supervision, participation on graduate student committees, graduate course teaching, and participation in qualifying exams and thesis defense committees. The SES has two Category 2 faculty members (R. Nicol and N. Rooney). Also listed are thirty Category 5 faculty members who are either adjunct faculty or holders of College/University emeritus status. Each of these individuals are actively involved (or have been actively involved during the assessment period) in the graduate program as co-advisors to graduate students, participation on graduate student committees and defences, and contributions to the teaching of graduate courses. Many are PIs or co-PIs on active grants administered by the SES.

Each of the three proposed fields has a “critical mass” of Category 1 faculty members and there is strong representation within each: 17 in Earth and Atmospheric Sciences, 12 in Ecosystem Science and Biodiversity, and 10 in Plant & Environmental Health based on primary affiliations). However, the expertise of many faculty members clearly overlaps between fields. When multiple

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affiliations are taken into consideration, the number of faculty members in each category increases to 17, 17 and 16 for the three fields, respectively.

The Category 1 faculty members meet a very high standard of performance and include numerous recognized leaders in their disciplines. Three faculty members (Hall, Anand, and Blodau) hold either Tier I or Tier II Canada Research Chairs. Another (Parker) holds an IRC and is is an Adjunct in the SES. Two faculty members (Lee and Kevan) head up national NSERC Networks and several faculty members have served on NSERC and other granting agency selection committees. One faculty member (Kevan) is a member of the Royal Society of Canada while two others (Solomon and Ritter) are Fellows of the Academy of Toxicological Sciences. Numerous faculty members have received high-level society awards in recognition of outstanding achievements in their fields, served as editors or on editorial boards for journals, and as society presidents or on Boards of Directors.

There have been nine retirements since the 2007 appraisal for LRS (Brookfield, Goss, Hilts, Van Straaten) and the 2002 appraisal for EVB (Hall, Kevan, Solomon, Stephenson, Sutton). One faculty member (Dr. Liss) resigned to take up a position as Vice President of Research at another Ontario university. Five Category 1 faculty members (Boland, Evans, Ritter, Trevors, Voroney) will reach the age of 65 over the next seven years. Of these, only two (Boland and Evans) have committed to specific retirement dates (both in 2011). With the elimination of mandatory retirement in Ontario, it is premature to plan for and schedule potential replacements for these faculty. Indeed, with hiring freezes within the university anticipated over the next few years, it is expected that positions vacated by retirements in the SES may not be replaced. The impact that future retirements that are not replaced could have on the graduate curriculum is speculative. However, the SES has taken the approach of hiring new faculty in strategic areas to ensure that strength is maintained in the proposed fields of study. Since the previous reviews, eight new faculty members have been hired in the SES. These include Newman (2004), Guzman (2005), Habash (2005), Hunt (2007), Anand (2007), Nicol (2007), Rennie (2007), and Blodau (2009):

1) Dr. Jonathon Newman – Ecosystem dynamics and global change ecology. Dr. Newman uses experimental and mathematical ecology to investigate impacts of climate change on temperate grasslands in terms of community and population ecology, plant-animal and plant-fungal interactions, trophic interactions and ecosystem function 2) Dr. Ernesto Guzman – Apiculture and honey bee biology. Dr. Guzman investigates aspects of honey bee breeding, genetics and behaviour, and honey bee pathology 3) Dr. Marc Habash - Aquatic microbiology. Dr. Habash studies microbial biofilm development and physiology and molecular mechanisms of antimicrobial resistance and catabolic genes 4) Dr. Shelley Hunt – Forest Systems Ecologist. Dr. Hunt studies ecosystem structure and function in managed forests, forest biodiversity, carbon and nitrogen dynamics in forest litter and woody debris, boreal forest ecology 5) Dr. Madhur Anand – Canada Research Chair in Global Ecological Change. Dr. Anand studies the potential impacts of global warming via the application of emerging interdisciplinary theories, quantitative methods and predictive simulation models to aid the preservation, recovery and restoration of perturbed and vulnerable forest ecosystems worldwide 6) Dr. Rob Nicol - Bioenergy Production. Dr. Nicol’s research focuses on the development of biofuels and other types of renewable energy, as well as the bioconversion of biofuels co-products to useful chemicals

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7) Dr. Tom Rennie – Agricultural Engineering. Dr. Rennie’s work will focus on improved processes for bioenergy production. 8) Dr. Christian Blodau - Canada Research Chair in Environmental Geology and Biogeochemistry. Dr. Blodau’s work will focus on the hydrological and chemical regulation of elemental cycles in peatlands and lakes, and fate and mobility of carbon, sulfur and iron in subsurface environments

Two Category 2 faculty members joined the School since the last appraisals for LRS and EVB. Nicol is affiliated with Ridgetown College and is co-funded through the Centre for Agricultural Renewable Energy and Sustainability. Rooney is co-funded by the university and the Saugeen Ojibway First Nation. It is important to note that these positions represented new opportunities for the School and College and were not intended to substitute for replacements of tenure-track faculty.

The current faculty complement in the SES is entirely appropriate for the proposed program and includes an excellent balance of new and experienced faculty across the ranks and within the fields of study. Nonetheless, the School and College will continue to periodically re-evaluate its academic plan with respect to recruitment strategies.

TABLE 1

Faculty Members by Field

Fields1,2

Ret Home Unit Supervisory Faculty Name & Rank M/F EAS ESB PHE Date Privileges Category 1 (Core Faculty) Anand, M. – Associate Professor F SES Full X Arnaud, E. – Assistant Professor F SES Full X Blodau, C. – Associate Professor M SES Full X* X Boland, G. - Professor M 2011 SES Full X Dixon, M. – Professor M SES Full X Dunfield, K. – Associate Professor M SES Full X* X Evans, L. – Professor M 2011 SES Full X Glasauer, S. – Assistant Professor F SES Full X Goodwin, P. – Professor M SES Full X Gordon, A. – Professor M SES Full X Gordon, R. – Professor M SES Full X

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Guzman, E. – Professor M SES Full X X* Habash, M. – Assistant Professor M SES Full X* X Hale, B. – Professor F SES Full X* X Hall, C – Professor M SES Full X Hallett, R. – Associate Professor F SES Full X X* Heck, R. – Associate Professor M SES Full X Hilts, S. – Professor M 2010 SES Full X Hsiang, T. – Professor M SES Full X X* Hunt, S. – Assistant Professor F SES Full X Lauzon, J. – Associate Professor M SES Full X Lee, H. – Professor M SES Full X Marshall, S. – Professor M SES Full X McBride, R. – Professor M SES Full X Newman, J. – Professor M SES Full X* X O’Halloran, I. – Associate Professor M SES Full X Otis, G. – Professor M SES Full X Parkin, G. – Associate Professor M SES Full X Rennie, T. – Assistant Professor M SES Co- X supervisor Ritter, L. – Professor M SES Full X Schmidt, J. – Associate Professor M SES Full X Scott-Dupree, C. – Professor F SES Full X X* Sibley, P. – Professor M SES Full X Trevors, J. – Professor M SES Full X X* Van Eerd, L. – Associate Professor F SES Full X* X Voroney, P. – Professor M SES Full X Wagner-Riddle, C. – Professor F SES Full X Warland, J. – Associate Professor M SES Full X Watson, A. – Assistant Professor M SES Co- X supervisor Category 2 (Contractually Limited faculty)

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Nicol, R. – Assistant Professor M SES Co- X supervisor Rooney, Neil M SES Co- X supervisor Category 5 (Adjunct and Emeritus Faculty) Alex, J. – Emeritus M Ret SES Co- X Supervisor Barron, G. – Emeritus M Ret SES Co- X Supervisor Beauchamp, E. – Emeritus M Ret SES Co- X Supervisor Berkelaar, E. – Adjunct M Redeemer Co- X College Supervisor Chesworth, W. – Emeritus M Ret SES Co- X Supervisor Chung, D. – Adjunct M Centurion Co- X Biofuels Supervisor Elrick, D. – Emeritus M Ret SES Co- X Supervisor Fletcher, A. – Emeritus M SES Co- X Supervisor Gillespie, T. – Emeritus M Ret SES Co- X Supervisor Goss, M. – Emeritus M 2009 SES Co- X Supervisor Groenevelt, P. - Emeritus M SES Co- X Supervisor Hall, R. - Emeritus M 2004 SES Co- X Supervisor Hanson, M. – Adjunct M University Co- X of Manitoba Supervisor Kaushik, N. – Emeritus M Ret SES Co- X Supervisor Kevan, P. – Emeritus M 2009 SES Co- X X* Supervisor King, K. – Emeritus M SES Co- X Supervisor

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Liss, S. – Professor - Adjunct M SES Co- X Supervisor MacKenzie, R. – Adjunct M National Co- X Research Supervisor Council Martini, P. – Emeritus M Ret SES Co- X Supervisor Miller, M. – Emeritus M Ret SES Co- X supervisor Morris, D. – Adjunct M Ministry of Co- X Natural Supervisor Resources Muir, D. – Adjunct M Environmen Co- X t Canada Supervisor Parker, B. – Adjunct F Engineering Full X Sears, M. – Adjunct M 2006 SES Co- X Supervisor Shipp, L. – Adjunct M SES Co- X X* Supervisor Solomon, K. – Emeritus M 2010 SES Co- X Supervisor Sutton, J. – Adjunct M 2006 SES Co- X Supervisor Stephenson, G. – Emeritus M 2007 SES Co- X* X Supervisor Thevasthasan, N. – Adjunct M SES Co- X Supervisor Thomas, N. – Adjunct M Consultant Co- supervisor Trevorrow Ltd. Thompson, D. - Adjunct M Natural Co- X Resources Supervisor Canada Thurtell, G. – Emeritus M Ret SES Co- X Supervisor Van Staaten, P. – Emeritus M 2009 SES Co- X Supervisor Woodcock, T. - Adjunct M SES Co- X Supervisor

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Zhang, T. – Adjunct M Agriculture Co- X Canada Supervisor Zheng, Y. – Adjunct M SES Co- X Supervisor

1 Field acronyms: Earth and Atmospheric Science (EAS), Ecosystem Science and Biodiversity (ESB), and Plant Health and Environment (PEH) 2 Where more than one field is declared, an asterisk indicates the primary field

2.2. External operating research funding External research funding received by faculty from the two programs by source for both year and proposed field for the past eight years is presented in Tables 2a and 2b, respectively. Complete data is presented up to and including the fiscal year 2009/2010.

Faculty members in the SES have been highly successful in attracting research funding during the previous seven years. In total, LRS received over $26 million in research funding over the assessment period, while EVB received over $53 million. Funding for research in EVB has generally been higher than that in LRS over the assessment period, reflecting the greater number of faculty members in that department.

Faculty in both LRS and EVB have been highly successful in attracting funding from granting councils (NSERC Discovery, strategic grants, etc), with more than $25 million total funding over the assessment period. Both units enjoyed consistent success in NSERC-based funding, with 35% and 34% of total research funds derived from this source in LRS and EVB, respectively. Currently, 73% of SES faculty hold either an NSERC Discovery or NSERC Strategic grant. The recent drop in granting council funding in LRS may reflect reduced funding availability through government and industry sources due to the economic recession during this period. For example, federal government policy has seen reductions in the number of Discovery grants being awarded across Canada in recent years. This situation is also true in EVB but is somewhat masked in the last two years due to $5 million awards to each of two faculty members to establish national NSERC strategic networks in 2008/2009 and 2009/2010, respectively. Success in the granting council category also reflects funding to support three CRC’s (Hall, Anand, and Blodau).

A significant contributor of research funding to the two departments in most years was the Ontario Ministry of Agriculture, Food and Rural Affairs (OMAFRA) which, through its Enhanced Partnership Agreement with the University of Guelph buys some faculty time for research and provides support for administrative, technical, and field research facilities. Through various OMAFRA-sponsored programs (e.g., New Directions, annual OMAFRA theme-based funding), the LRS and EVB have attracted over $10 million (38%) and $12 million (23%), respectively in the last seven years (listed under the Other Peer-Adjudicated column in Table 2a).

Contracts, derived through the formation of strategic partnerships with government agencies and industry, accounted for over $2 million (8%) of funding in LRS and over $16 million (30%) in EVB. A large portion of the money awarded to EVB in this category came via a $4 million dollar grant from the Canadian International Development Agency (CIDA), the entire amount of which was accredited in 2006.

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Faculty funding by proposed field indicates strength in all three areas (Tables 2b and 2d). Total funding across all categories for the three proposed fields was over $29 million (35%), $12 million (14%), and $41 million (48%), for Earth and Atmospheric Science, Ecosystem Science and Biodiversity, and Plant & Environmental Health, respectively. The lower level of funding for faculty in Field 2 (Ecosystem Science and Biodiversity) in most categories reflects a number of reasons including a smaller compliment of faculty for which this is the primary field, smaller funding contributions from the OMAFRA program (under Other Peer-Adjudicated sources), recent faculty additions (Hunt and Rooney) to this field whose research programs are still in the developmental phase, and secondment of one faculty to serve as an Associate Dean at the University of Guelph. The relatively higher funding amount listed under the contracts category in Field 2 reflects the CIDA contract (A. Gordon).

There was only a single situation in which funding was awarded for the sole purpose of travel as most faculty members incorporate funding for travel into their grant applications. Thus, we have not reported funding for travel in tabular format. A number of faculty members have received funding through the Canadian Foundation for Innovation New Opportunities Program (Habash, Anand, Blodau, Glasauer, Dunfield) and this accounts for the bulk of monies allocated as equipment funding, which was over $6 million and $7 million, respectively for LRS and EVB during the assessment period (Tables 2c and 2d).

Not reflected in these tables is the 33 million dollar refurbishment of Alexander Hall which will significantly improve the quality of the lab and office space for graduate students. Similarly, funds obtained as part of the Biodiversity Institute of Ontario initiative to expand the insect museum located in the Bovey Building, including the purchase of equipment to enable the compact storage of insect specimens is not shown.

In summary, faculty members in EVB and LRS have been highly successful in attracting the fund necessary to sustain and expand the critical infrastructure and equipment to support the research activities central to the proposed SES graduate program.

TABLE 2a

Operating Research Funding by Source and Year

Source

Other Peer Year 1 Granting Councils2 Contracts Others 4 Adjudicated3 2002-03 LRS 383, 303 1,211,494 262,627 1,331,621 EVB 1,452,928 1,326,091 941424 991,827 2003-04 LRS 697,690 1,281,803 186,088 119,698 EVB 1,213,979 1,098,215 2,136,746 639,400

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Operating Research Funding by Source and Year

Source

Other Peer Year 1 Granting Councils2 Contracts Others 4 Adjudicated3 2004-05 LRS 1,862,022 1,064,817 111,832 364,555 EVB 616,014 1,181,893 866,809 637,645 2005-06 LRS 1,070,742 1,081,127 939,800 1,038,507 EVB 1,585,506 2,038,570 1,954,800 1,539,314 2006-07 LRS 1,164,184 1,211,201 703,249 505,958 EVB 1,841,449 1,522,882 6,172,450 504,658 2007-08 LRS 1,499,765 1,183,368 278,848 687,015 EVB 1,780,124 1,729,609 1,488,988 619,605 2008-09 LRS 836,436 1,649,934 161,239 1,156,472 EVB 5,036,373 1,681,934 1,530,239 1,427,604 2009-10 LRS 603,870 1,619,429 312,598 1,196,144 EVB 3,756,558 1,861,236 1,250,586 640,914 Totals LRS 8,118,012 10,302,711 2,055,582 6,399,970 EVB 17,632,999 12,656,809 16,602,885 7,048,439 Overall 25,019,266 22,439,429 18,937,739 12,850,214

1. Based on fiscal year (May 1st to April 31st) 2. Does not include equipment grants, conference grants, or grants allocated by the university 3. Grants that are peer-reviewed independently 4. Funding derived from industry, foundations, etc

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TABLE 2b

Total External Operating Funding by Field

Other Peer Granting Councils Contracts Others Adjudicated Field 1 8,415,222 11,342,711 3,039,182 6,540,120 Field 2 2,620,580 2,059,263 6,470,579 1,240,542 Field 3 15,012,419 10,597,546 10,132,306 5,808,167

TABLE 2c

Operating Research Funding for Equipment by Year

Year 1 LRS EVB 2002-03 49,000 42,689 2003-04 46,974 9,728 2004-05 16,400 2005-06 413,031 23,430 2006-07 24,567 2007-08 32,798 95,636 2008-09 248,700 2009-10 442,494 Totals 1,000,697 444,750

1. Based on fiscal year (May 1st to April 31st)

TABLE 2d

Field 1 Field 2 Field 3 1,000,697 341,036 103,714

2.3. Graduate student and post-doctoral supervision Table 3 summarizes the past and present supervisory activities of current faculty in the SES. Collectively, the faculty members have an excellent track record of training graduate students and other HPQ. A total of 37 out of 40 (92.5%) Category 1 faculty members in the SES currently

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supervise or co-supervise at least one graduate student or post-doc. Of those that are not currently supervising students, Ritter has a distribution of effort (DOE) that heavily emphasizes service, Watson is the full-time Director of the University of Guelph Arboretum, and Rennie is a recent faculty member at the Kemptville campus and has not yet taken on any students but is expected to do so in the proposed graduate program. Among Category 2 faculty members, Rooney started in September 2009 and is actively seeking graduate students. Among the Category 5 faculty, many (Hanson, Kaushik, Liss, MacKenzie, Muir, Parker, Sears, Solomon, Thevasthasan, Sutton, and Zheng) are currently or have recently been actively involved in the co-supervision of graduate students. Active participation of Emeritus and Adjunct faculty in the graduate program is highly valued within the SES as they play an important role in the intellectual development and technical training of graduate students, in some cases by bringing valuable perspectives from non-academic sectors of society. This is also true of PDFs, which we have included among the totals in Table 3. PDFs provide excellent role models and mentors for graduate students, and benefit overall graduate training activities.

The size of the graduate cohort at any given time since the merger of the two former departments fluctuates between 140 and 160 MSc and PhD students (160-180 including Post- doctoral students). Approximately 33% of the degree student total is comprised of PhD students. The SES has developed a number of strategies to increase the number of PhD students (and degree students in general); projected trends in graduate student numbers and relative proportions in degree categories are discussed in section 5.4). Category 1 faculty have supervised a total of 417 MSc/Master’s students, 149 PhD students and 134 post-doctoral students and are currently (Fall 2010) supervising 88 MSc/Master’s students, 65 PhD students, and 19 post-doctoral researchers. The SES stipulates that students advised by Professors Emeritus and Adjunct Professors must have a co-advisor from Category 1 faculty members; as such, all currently enrolled graduate students are either superivised or co-supervised by Category 1 faculty members.

Overall, the sustained large number of high quality students, along with the high proportion of regular faculty, Professors Ermeritus, and Adunct faculty participating in training activities, clearly indicates the strength, maturity and vigour of the graduate program in the SES.

TABLE 3

Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Category 1 (Core Faculty) Anand, M. – (7)2 (3) (1) 2(1) 3(2) Associate Professor Arnaud, E. – 2 0 0 2 1 1 Assistant Professor

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Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Blodau, C. – 0 0 0 0 0 0 Associate Professor Boland, G. - 23 7 7 0 4 1 Professor Dixon, M. – 16 6 11 4 3 0 Professor Dunfield, K. – 2 2 1 4(1) 2 0 Associate Professor Evans, L. – 14 4 0 2 0 0 Professor Glasauer, S. 1 1 1 2 2 0 – Assistant Professor Goodwin, P. 9 6 13 3 3 0 – Professor Gordon, A. – 32 4 5 5 2 1 Professor Gordon, R. – 34(2) 7 (2) 5 1 (1) 1 Professor Guzman, E. 7 3 1 2 4 2 – Professor Habash, M. – 0 0 0 2 1 0 Assistant Professor Hale, B. – 4 0 0 5 3 1 Professor Hall, C – 34(1) 18 8 8 2(1) 1 Professor Hallett, R. – 5(1) 1 3 5 3 0 Associate Professor Heck, R. – 1 3 0 2 0 0 Associate Professor

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Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Hilts, S. – 44 0 0 0 0 Professor 2(2) Hsiang, T. – 12 2 16 5 1 0 Professor Hunt, S. – 2 0 0 1 1 0 Assistant Professor Lauzon, J. – 10 0 0 2 0 0 Associate Professor Lee, H – 14 16 16 6 3 3 Professor Marshall, S. 17 6 2 6 2 0 – Professor McBride, R. 13 1 2 1 1 0 – Professor Newman, J. 7 3 1 3 3 1 – Professor O’Halloran, I. 1 1 0 0 0 0 – Associate Professor Otis, G. – 12 3 0 1 2 0 Professor Parkin, G. – 9 4 4 1 5 0 Associate Professor Rennie, T. – 0 0 0 0 0 0 Assistant Professor Ritter, L. – 0 0 0 0 0 0 Professor Schmidt, J. – 5 0 0 2 0 0 Associate Professor

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Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Scott- 14 3 3 6 2 0 Dupree, C. – Professor Sibley, P. – 14 5 2 3 2 0 Professor Trevors, J. – 22 20 25 8 0 3 Professor Van Eerd, L. 1 0 0 3 0 0 – Associate Professor Voroney, P. 21 14 6 2 5 0 – Professor Wagner- 12 5 2 4 4 1 Riddle, C. – Professor Warland, J. – 3 2 1 1 3 0 Associate Professor Watson, A. – 0 0 0 0 0 0 Assistant Professor Totals 417 149 134 102 39 16 Category 3 (Contractually Limited Faculty) Nicol, R. - 1 (1) 0 0 0 0 0 Assistant Rooney, Neil 0 0 0 0 0 0 Category 5 (Adjunct and Emeritus Faculty) Alex, J. – 8 0 0 03 0 0 Emeritus Barron, G. - 4 0 0 0 4 0 Emeritus Beauchamp, 3 7 1 0 0 0 E. - Emeritus

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Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Berkelaar, E. - 1 0 0 1 0 0 Adjunct Chesworth, W. 16 1 4 0 0 0 - Emeritus Chung, D. - 0 0 0 0 0 0 Adjunct Elrick, D. - 2 1(1) 0 0 0 0 Emeritus Fletcher, A. - 20 5 0 0 0 0 Emeritus Gillespie, T. - 17 10 1 0 1 0 Emeritus Goss, M. - 11 6 0 2 2 0 Emeritus Groenevelt, P. 17 3 0 0 0 0 - Emeritus Hall, R. - 18 15 0 0 0 3 Emeritus Hanson, M. - (5) 0 0 2 (4) 0 0 Adjunct Kaushik, N. - 17 4 0 0 0 4 Emeritus Hewitt, M. – 1 0 0 2 (2) 0 Adjunct Kevan, P. - 21 10 0 1 2 0 Emeritus King, K. - 2 1 0 0 0 0 Emeritus Liss, S. - 27 6 5 6 0 0 Adjunct MacKenzie, R. 1 1 2 1 0 1 - Adjunct Martini, P. - 19 1 0 0 0 0 Emeritus

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Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Miller, M. 1 3 0 0 0 0 Emeritus Morris, D. - (3) (2) 0 4 0 0 Adjunct Muir, D. – 9 4 6 3 1 2 Adjunct Parker, B. – 1 (12) (5) 0 3 (1) 2 0 Adjunct Sears, M. – 33 14 0 0 1 0 Adjunct Shipp, L. - 2 2 0 2 1 0 Adjunct Solomon, K. - 30 24 7 6 4 1 Emeritus Sutton, J. - 24 16 12 0 1 0 Adjunct Stephenson, 26 13 7 0 0 0 G. - Emeritus Tanha, J. - 0 1 3 3 1 0 Adjunct Thevasthasan, 1 0 0 1 0 0 N. - Adjunct Thomas, N. - 0 0 0 0 0 0 Adjunct Thompson, D. 3 3 (2) 0 0 0 0 - Adjunct Thurtell, G. 8 7 0 0 0 0 Van Staaten, 6 0 0 5 1 0 P. – Emeritus Woodcock, T. - 0 0 0 0 0 0 Adjunct Zhang, T. - 0 0 0 (3) 2 (3) 4 Adjunct Zheng, Y. - 6 (1) 1 5 0 1 Adjunct

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Completed and Current Numbers of Thesis Supervisions by Faculty Member

Completed Current

Member Master’s PhD PDF Master’s PhD PDF Totals 336 159 46

1 Faculty members are listed under the same categories specified in Table 1. 2 Numbersnot in parentheses indicate graduate students supervised in the program under review; numbers in parentheses indicate graduate students supervised as part of another graduate program. 3 All graduate students advised by an Emeritus or Adjunct Professor must be co-supervised by a Category 1 faculty member. As such, these numbers are already counted in the current totals for Category 1 faculty. 2.4. Current teaching assignments The teaching assignments for faculty in the proposed program for 2007/2008, 2008/2009, and 2009/2010 are provided in Tables 4 a-c, respectively. Based on a DOE of 40:40:20 (teaching:research:service), the standard teaching load for faculty in the SES, including both graduate and undergraduate courses, is 2.5 units (2 undergraduate courses per year and 1 graduate course every other years). In the current system, an undergraduate course with or without a laboratory or tutorial component (0.5 credits, 12 weeks, 2-5 contact hours per week depending on whether there is a laboratory or tutorial) is counted as 1 teaching unit. Undergraduate and graduate project courses, where faculty act as coordinators, and seminar- style graduate courses, are counted as 0.5 units. Undergraduate field courses are counted as 1 unit. This value is reduced for courses that are team-taught in proportion to the approximate time spent by a faculty teaching the course. The annual teaching load for faculty holding a Canada Research Chair (Anand, Blodau, Hall) is 1 unit. Faculty with increased permanent (Dixon, Hale, Lee, Newman, Otis, Ritter, Schmidt) or periodic (Guzman, Heck) administrative responsibilities are provided with teaching relief. Similarly, new faculty are provided teaching relief by releasing them from teaching responsibilities in their first year, then moving to a full load in their second year.

With a few exceptions, most faculty members in the SES under the 40:40:20 DOE carry a full teaching load. Some faculty (Arnaud, Glasauer, Warland, Parkin, Van Eerd, Voroney), however, currently have, or have had, a DOE that focuses a higher percentage of their time on teaching undergraduate courses such that they contribute more than 2 teaching units. Further, to the extent possible, variable teaching loads may result from accommodations made for indivudals who are assigned or take on responsibilities such as participation in major committees and grant panel memberships. The SES has some staff support to assist in the development and delivery of undergraduate laboratories; however, in courses with enrolments below 25 students faculty members are generally solely responsible for all development and delivery aspects.

Graduate courses are built into the overall teaching assignments to the extent possible. In the new SES graduate program, with the addition of new courses in support of the Coursework Master’s and graduate Diploma, it is expected that greater emphasis will be placed on, and increased credit given to, faculty involved in the delivery of graduate courses. Due to the recent merger of LRS and EVB, and numerous faculty retirements during the assessment period, the SES graduate program has experienced a number of course cancellations and inconsistencies with respect to course offerings. The SES is in the process of addressing this by revising the range of graduate course offerings, eliminating those with little demand, and developing new

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courses. To aid in this effort, a revision of the SES undergraduate curriculum (e.g., elimination of courses with consistently low enrolments) will free up faculty time that will be dedicated to the revision of existing, and the development of new, graduate courses.

At present a number of Emeritus (E) and/or Adjunct (A) faculty members play an active role in teaching at both the undergraduate and graduate levels. Gillespie (E), Goss (E), Harris (E), Kevan (E) Martini (E), Sears (A), Skevington (A), Solomon (E), Stephenson (E), Thevasthason (A), Van Straaten (E), Woodcock (A), and Zheng (A) have contributed to teaching at either the undergraduate or graduate level during the past three years.

TABLE 4a (Footnotes are located at the bottom of Table 4c)

Teaching Assignments for 2007/081

Faculty Member Rank Undergraduate Graduate2 Comments Category 1 (Core Faculty) Anand, M. Associate ENVB6710 (W) 0.25 Co-taught Arnaud, E. Assistant GEOL3250 (F) 0.504 GEOL4110 (F) 0.50 Faculty supervisor GEOL2160/2200 (W) 0.50 Cross-lst3 Blodau, C. Associate New faculty, September 2009 (no teaching assignments) Boland, G. Professor ENVB3210 (F) 0.50 ENVB2040 (W) 0.50 Co-taught ENVB6452 (F) 0.50 Faculty supervisor Brookfield, M. Professor GEOL1050 (F) 0.50 Dixon, M. Professor UNIV1200 (W) 0.50 Co-taught (GW) ENVB6452 (S) 0.50 Faculty supervisor Dunfield, K. Associate Evans, L. Professor GEOL3190 (F) 0.50 LRS6360 (F) 0.50 SOIL3060 (F) 0.50 LRS6380 (W) 0.50 GEOL4110 (W) 0.50 Faculty supervisor GEOL4130 (W) 0.50 Glasauer, S. Assistant GEOL2110 (F) 0.50 GEOL4110 (F) 0.50 Faculty supervisor Goodwin, P. Professor MICR3220 (F) 0.50 PBIO4000 (F) 0.50 ENVB6040 (F) 0.50 Cr-lst ;Co-taught Co-taught ENVB6710 (F) 0.25 Gordon, A. Professor ENVB4780 (F) 0.50 ENVB6560 (F) 0.50 Co-taught

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Teaching Assignments for 2007/081

Faculty Member Rank Undergraduate Graduate2 Comments Gordon, R. Professor Dean, Ontario Agricultural College Guzman, E. Professor ENVB2210 (F) 0.50 ENVB6710 (F) 0.50 Co-taught Habash, M. Assistant ENVB3280 (F) 0.50 ENVB3030 (W) 0.50 ENVB6710 (W) 0.25 Co-taught Hale, B. Professor LRS6581 (F)U 0.50 Faculty supervisor Hall, C. Professor UNIV1200 (F) 0.50 ENVB4240 (W) 0.50 ENVB6550 (W) 0.50 Cr-lst ;Co-taught Co-taught ENVB6720 (F) 0.25* Faculty supervisor ENVB6452 (F,S) 0.50 Hallett, R. Associate ENVB6452 (F) 0.50 Faculty supervisor Heck, R. Associate SOIL4250 (F) 0.50 LRS6582 (F)U 0.50 Faculty supervisor Faculty supervisor LRS6730 (W)U 0.50 Hilts, S. Professor SOIL4070 (F,W) 0.50 Course coordin SOIL4110 (F) 0.50 Co-taught SOIL3000 (W) 0.50 NRS2050 (S) 0.50 NRS3300 (S) 0.50 LRS6581 (F)W U 0.50 Course coordin LRS6582 (F)W U 0.50 Course coordin LRS6881 (F)U 0.50 Course coordin LRS6730 (W)U 0.50 Course coordin Hsiang, T. Professor DTM3200 (F) 0.50 ENVB3250 (F) 0.50 ENVB6452 (S) 0.50 Faculty supervisor Hunt, S. Assistant ENVB2030 (F) 0.50 ENVB6560 (F) 0.50 Co-taught Lauzon, J. Associate AGR2320 (F) 0.50 LRS6400 (W) 0.50 SOIL4090/4130 (F) 0.50 Cross-lst AGR2500 (W) 0.50 Lee, H. Professor MICR4180 (F) 0.50 ENVB6452 (W) 0.50 Faculty supervisor ENVB6452 (S) 0.50 Co-Fac supervisor

Page 32 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 33

Teaching Assignments for 2007/081

Faculty Member Rank Undergraduate Graduate2 Comments Marshall, S. Professor ENVB4260 (F) 0.50 Co-taught ENVB3090 (W) 0.50 ENVB4270 (W) 0.50 ENVB6720 (F) 0.25* Co-taught ENVB6452 (W) Faculty supervisor McBride, R. Professor SOIL3050 (F) 0.50 SOIL4110 (F) 0.50 Co-taught Newman, J. Professor ENVB3010 (F) 0.50 ENVB6452 (F) 0.50 Co-course coordin Course coordin ; ENVB4420 (S) 0.50 Faculty supervisor Faculty supervisor Faculty supervisor ENVB6452 (W) 0.50 ENVB6451 (S) 0.25

ENVS1020 (F) 0.50 ENVB3330 (W) 0.50 O’Halloran, I. Associate LRS6582 (F)W U 0.50 Faculty supervisor Otis, G. Professor ENVB4260 (F) 0.50 Co-taught ENVB4040 (W) 0.50 Parkin, G. Associate GEOL4110 (F) 0.50 LRS6582 (F)W U 0.50 Faculty supervisor SOIL3070 (F) 0.50 Course Coordin GEOL4110 (F) 0.50 Rennie, T. Assistant DAGR*1600 (F) 0.5 DAGR*3300 (F) 0.5 DAGR*4350 (W) 0.5 Ritter, L. Professor TOX2000 (F) 0.50 TOX6000 (S) 0.50 Co-taught Schmidt, J. Associate ENVB4290 (F) 0.50 ENVB2100 (W) 0.50 ENVB4240 (W) 0.50 ENVB6550 (W) 0.50 Cr-lst ;Co-taught ENVB6452 (S) 0.50 Co Fac supervisor

Page 33 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 34

Teaching Assignments for 2007/081

Faculty Member Rank Undergraduate Graduate2 Comments Scott-Dupree, C. Professor ENVB2040 (W) 0.50 ENVB4100 (W) 0.50 ENVB6720 (F) 0.25* Co-taught (6720) ENVB6540 (W) 0.50 Cross-lst (6540) ENVB6451 (S,F,W) Course coordin 0.25 Course coordin ENVB6452 (S) 0.25 Co-course coordin ENVB6452 (F,W) 0.50 Sibley, P. Professor ENVB4020 (F) 0.50 ENVB4220 (F) 0.50 ENVS4011 (F) 0.00 ENVS4012 (W) 0.50 Trevors, J. Professor ENVB4800 (F) 0.50 Co-taught MICR4140 (F) 0.50 ENVB6452 (W) 0.50 Faculty supervisor Van Eerd, L. Associate LRS6881 (F)U 0.50 Faculty supervisor Voroney, P. Professor SOIL3030/4160 (F) 0.50 Co-taught ; Cr-lst PBIO4100 (W) 0.50 LRS6340 (F) 0.50 LRS6910 (W) 0.25 Faculty supervisor Wagner-Riddle, C. Professor MET2020 (W) 0.50 MET3030 (W) 0.50 SOIL4070 (S) 0.50 Faculty supervisor Warland, J. Associate SOIL4070 (F) 0.50 Faculty supervisor LRS6242 (F) 0.50 LRS6900 (F) 0.25 LRS6040 (W) 0.50 LRS6060 (W) 0.50 LRS6910 (W) 0.25 Course coordin Watson, A. Assistant ENVB3000 (F,W) 0.50 UNIV2050 (F) 0.50 UNIV3250 (W) 0.50

Category 2 (Contractually Limited Faculty) Nicol, R. Assistant Arrived November 2007; No teaching Rooney, Neil Assistant Arrived in September 2009

Category 5 (Adjunct and Emeritus Faculty) Alex, J. Emeritus

Page 34 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 35

Teaching Assignments for 2007/081

Faculty Member Rank Undergraduate Graduate2 Comments Barron, G. Emeritus - College Beauchamp, E. Emeritus Berkelaar, E. Adjunct Chesworth, W. Emeritus Chung, D. Adjunct Elrick, D. Emeritus Fletcher, A. Emeritus - College Gillespie, T. Emeritus MET2030 (F) 0.50 Goss, M. Emeritus SOIL2010 (F) K202 0.50 Groenevelt, P. Emeritus Hall, R. Emeritus - College Hanson, M. Adjunct Kaushik, N. Emeritus - ENVB3040 (W) 0.5 India Semester College Hewitt, M. Adjunct Kevan, P. Emeritus ENVB6452 (S) 0.50 Faculty supervisor King, K. Emeritus Liss, S. Professor - Adjunct MacKenzie, R. Adjunct Martini, P. Emeritus Miller, M. Emeritus Morris, D. Adjunct Muir, D. Adjunct Parker, B. Adjunct Sears, M. Adjunct ENVB4420 (F,W) 0.50 Corse Coordin ENVB2010 (W) 0.50 DTM3300 (F) 0.50 Co-taught Shipp, L. Adjunct

Page 35 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 36

Teaching Assignments for 2007/081

Faculty Member Rank Undergraduate Graduate2 Comments Solomon, K. Emeritus TOX2000 (F) 0.50 Co-taught ENVB/TOX4550 (W) 0.50 ENVB/TOX6530 (W) Cross-lst 0.50

TOX4200 (W) 0.50 Co-taught

ENVB6720 (F) 0.25* Co-taught TOX6000 (S) 0.50

Sutton, J. Adjunct Stephenson, G. Emeritus - College Tanha, J. Adjunct Thevasthasan, N. Adjunct Thomas, N. Adjunct Thompson, D. Adjunct Thurtell, G. Emeritus Van Staaten, P. Emeritus GEOL1100 (W) 0.50 GEOL3130 (W) 0.50 Woodcock, T. Adjunct Zhang, T. Adjunct Zheng, Y. Adjunct ENVB4420 (S) 0.50 Faculty supervisor

TABLE 4b (Footnotes are located at the bottom of Table 4c)

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments Category 1 (Core Faculty) Anand, M. Associate ENVB6710 (W) 0.25 Co-taught Arnaud, E. Assistant Maternity leave Blodau, C. Associate Arrived September 2009 Boland, G. Professor ENVB3210 (F) 0.50 ENVB6060 (W) 0.50 ENVB2040 (W) 0.50 Co-taught

Page 36 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 37

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments Brookfield, M. Professor Retired Dixon, M. Professor ENVB4420 (F,W,S) 0.50 Course coordin ENVS4011 (F) 0.00 UNIV1200 (F) 0.50 Co-taught ENVS4012 (W) 0.50 Dunfield, K. Associate SOIL3200 (W) 0.50 SOIL3080 (S) 0.50 Evans, L. Professor GEOL3190 (F) 0.50 LRS6360 (F) 0.50 SOIL3060 (F) 0.50 LRS6380 (W) 0.50 Taught in F08 Glasauer, S. Assistant GEOL1100 (W) 0.50 LRS6730 (U)S 0.50 Goodwin, P. Professor MICR3220 (F) 0.50 PBIO4000 (F) 0.50 ENVB6040 (F) 0.50 Cross-lst ;Co-tau ENVB6710 (F) 0.25 Co-taught ENVB6451 (F) 0.25 Faculty supervisor ENVB6451 (W) 0.25 Co Fac supervisor ENVB6452 (W) 0.50 Co Fac supervisor Gordon, A. Professor ENVB6560 (F) 0.50 Co-taught ENVB4400 (F) 0.50 ENVB4780 (F) 0.50 ENVB4420 (W) 0.50 Faculty supervisor Gordon, R. Professor Dean, Ontario Agricultural College Guzman, E. Professor ENVB2210 (F) 0.50 ENVB4420 (F,W) 0.50 Faculty supervisor ENVB6710 (F) 0.25 Co-taught Habash, M. Assistant ENVB3280 (F) 0.50 ENVB4420 (F) 0.50 Co-Fac supervisor ENVB4420 (W) 0.50 Faculty supervisor ENVB6710 (W) 0.25 Co-taught Hale, B. Professor PBIO4530 (W) 0.50 SOIL4070 (S) 0.50 LRS6900 (F) 0.25 LRS6500 (U)S 1.00 Course coordin LRS6582 (U)W 0.50 Faculty supervisor

Page 37 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 38

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments Hall, C. Professor ENVB4240 (W) 0.50 ENVB6550 (W) 0.50 Cross-lst ;Co-tau ENVB4420 (W) 0.50 Faculty supervisor UNIV1200 (W) 0.50 Hallett, R. Associate ENVB3040 (F) 0.50 ENVB4130 (W) 0.50 ENVB6452 (F) 0.50 Faculty supervisor Heck, R. Associate SOIL4250 (F) 0.50 LRS6250 (F) 0.50 Faculty supervisor LRS6582 (U)F,W 0.50 Course coordin ;

GEOL4180 (W) 0.50 Faculty supervisor LRS6760 (W) 0.50 SOIL4070 (W) 0.50 LRS6882 (U)W 0.50 Faculty supervisor Hilts, S. Professor LRS6582 (U)F,W 0.50 Course coordin LRS6882 (U)F 0.50 Course coordin ; Faculty supervisor LRS6882 (U)W 0.50 Course coordin NRS2050 (F) 0.50 NRS3030 (F) 0.50 NRS4110 (F) 0.50 Co-taught SOIL4070 (F) 0.50 Course coordin NRS3000 (W) 0.50 SOIL4070 (W) 0.50 Course coordin ; Faculty supervisor NRS2050 (S) 0.50 NRS3300 (S) 0.50 SOIL4070 (S) 0.50 Course coordin Hsiang, T. Professor DTM3200 (F) 0.50 ENVB3160 (F) 0.50 ENVB3250 (F) 0.50 ENVB6452 (F) 0.50 Faculty supervisor ENVB6451 (W) 0.25 Co Fac supervisor ENVB6452 (W) 0.50 Co Fac supervisor Hunt, S. Assistant ENVB3270 (W) 0.50 ENVB3330 (W) 0.50 ENVB4420 (W) 0.50 Faculty supervisor ENVB6560 (F) 0.50 Co-taught ENVB6451 (W) 0.25 Co Fac supervisor ENVB6452 (W) 0.50 Co Fac supervisor

Page 38 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 39

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments Lauzon, J. Assistant AGR2320 (F) 0.50 SOIL4090/4130 (F) 0.50 Cross-lst SOIL4070 (W) 0.50 Faculty supervisor Lee, H. Professor ENVB4800 (F) 0.50 Co-taught MICR4180 (F) 0.50 Marshall, S. Professor ENVB4260 (F,S) 0.50 Co-taught ENVB4420 (F) 0.50 Faculty supervisor ENVB3090 (W) 0.50 ENVB4270 (W) 0.50 McBride, R. Professor NRS4110 (F) 0.50 Co-taught SOIL3050 (F) 0.50 LRS6500 (U)S 1.00 Faculty supervisor Newman, J. Professor ENVB4420 (F,W) 0.50 Faculty supervisor ENVS1020 (F) 0.50 ENVB6452 (F,W) 0.50 Co-course Coordin ENVB6452 (F) 0.50 Faculty supervisor

O’Halloran, I. Associate DENM*3150 (F) 0.5 ENVM*2050 (F) 0.5 CHEM*1040 (F) 0.5 Otis, G. Professor ENVB4260 (F,S) 0.50 Co-taught ENVB4040 (W) 0.50 UNIV1200 (W) 0.50 ENVB6451 (F) 0.25 Faculty supervisor ENVB6452 (F) 0.50 Faculty supervisor Parkin, G. Associate GEOL1050 (F) 0.50 LRS6280 (W) 0.50 AGR2500 (W) 0.50 Co-taught GEOL2160/2200 (W) 0.50 Cross-lst GEOL3060 (W) 0.50 GEOL4110 (W) 0.50 LRS6500 (W) 1.00 Course coordin ; Fac supervisor Rennie, T. Assistant DAGR*1600 (F) 0.5 DAGR*3300 (F) 0.5 DAGR*4350 (W) 0.5 Ritter, L. Professor TOX2000 (F) 0.50 TOX6000 (S) 0.50 Co-taught

Page 39 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 40

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments Schmidt, J. Associate ENVB4290 (F) 0.50 ENVB4420 (W) 0.50 Co-Fac supervisor ENVB2100 (W) 0.50

ENVB4240 (W) 0.50 Cross-lst ;Co-tau ENVB6370 (F) 0.50

ENVB6451 (W) 0.25 Co Fac supervisor ENVB6550 (W) 0.50 Scott-Dupree, C. Professor ENVB2040 (W) 0.50 Co-taught ENVB4100 (W) 0.50 ENVB6540 (W) 0.50 Cross-lst ENVB6451 (F,W,S) 0.25 Course coordin ENVB6452 (S) 0.25 Course coordin ENVB6452 (F,W) 0.50 Co course coordin ENVB6452 (W) 0.50 Faculty supervisor Sibley, P. Professor Sabbatical Trevors, J. Professor ENVB4800 (F) 0.50 ENVB6190 (W) 0.50 Co-taught MICR4140 (F) 0.50 ENVB6452 (W) 0.50 Faculty supervisor

Van Eerd, L. Associate DENM*3000 (W) 0.5 DENM*3160 (W) 0.5 ENVM*1000 (F) 0.5 DENM*1000 (F) 0.5 Voroney, P. Professor LRS6340 (F) 0.50 OAGR3030/4160 (F) 0.50 Co-taught ; Cr-lst LRS6582 (U)W 0.50 Faculty supervisor PBIO4100 (W) 0.50 SOIL4070 (W) 0.50 Faculty supervisor Wagner-Riddle, C. Professor SOIL4070 (F) 0.50 Faculty supervisor MET2020 (W) 0.50 LRS6000 (F) 0.50 MET3050 (W) 0.50 Warland, J. Associate MET4100 (W) 0.50 LRS6060 (W) 0.50 MET4210 (W) 0.50 LRS6910 (W) 0.50 Watson, A. Assistant ENVB3000 (F,W) 0.50 UNIV2050 (F) 0.50 UNIV3250 (W) 0.50

Category 2 (Contractually Limited Faculty)

Page 40 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 41

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments Nicol, R. Assistant ENVM*2500 (W) 0.5 CHEM*1040 (F) 0.5 ENVM*1100 (F) 0.5 DENM*1000 (F) 0.5 Rooney, Neil Assistant ENVB4020 (F) 0.50

Category 5 (Adjunct and Emeritus Faculty) Alex, J. Emeritus Barron, G. Emeritus - College Beauchamp, E. Emeritus Berkelaar, E. Adjunct Chesworth, W. Emeritus Chung, D. Adjunct Elrick, D. Emeritus Fletcher, A. Emeritus - College Gillespie, T. Emeritus MET2030 (F) 0.50 Goss, M. Emeritus SOIL2010 (F)K202 0.50 Groenevelt, P. Emeritus Hall, R. Emeritus - College Hanson, M. Adjunct Harris, R. Emeritus - ENVB6452 (W) 0.50 Faculty supervisor University Kaushik, N. Emeritus - College Hewitt, M. Adjunct Kevan, P. Emeritus ENVB3300 (F) 0.50 ENVB6520 (W) 0.50 ENVB6451 (W) 0.25 Faculty supervisor ENVB6452 (W) 0.50 Faculty supervisor King, K. Emeritus Liss, S. Professor - ENVB6452 (F) 0.50 Faculty supervisor Adjunct ENVB6451 (S) 0.25 Faculty supervisor

Page 41 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 42

Teaching Assignments for 2008/091 Faculty Member2 Rank Undergraduate Graduate3 Comments MacKenzie, R. Adjunct Martini, P. Emeritus GEOL4090 (F) 0.50 Miller, M. Emeritus Morris, D. Adjunct Muir, D. Adjunct Parker, B. Adjunct Sears, M. Adjunct Shipp, L. Adjunct Skevington, J. Adjunct ? ENVB6452 (W) 0.50 Faculty supervisor Solomon, K. Emeritus TOX2000 (F) 0.50 Co-taught ENVB/TOX4550 (W) 0.50 ENVB/TOX6530 (W) 0.50 Cross-lst TOX4200 (W) 0.50 Co-taught TOX6000 (S) 0.50 Co-taught Sutton, J. Adjunct Stephenson, G. Emeritus - ENVB3030 (W) 0.50 College Tanha, J. Adjunct Thevasthasan, N. Adjunct ENVB3230 (F) 0.50 ENVB4420 (S) 0.50 Faculty supervisor Thomas, N. Adjunct Thompson, D. Adjunct Thurtell, G. Emeritus Van Straaten, P. Emeritus GEOL3090 (W) 0.50 Woodcock, T. Adjunct ENVB2210 (W) 0.50 Zhang, T. Adjunct Zheng, Y. Adjunct ENVB6451 (W) 0.25 Faculty supervisor

Page 42 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 43

TABLE 4c

Teaching Assignments for 2009/101

Faculty Member2 Rank Undergraduate Graduate3 Comments Category 1 (Core Faculty) Anand, M. Associate ENVB2030 (F) 0.50 Arnaud, E. Assistant GEOL1050 (F) 0.50 LRS6710 (F) 0.50 LRS6700 (U)W 0.50 GEOL4180 (F) 0.50 Faculty supervisor GEOL2160/2200 (W) 0.50 Cross-lst Blodau, C. Associate Boland, G. Professor ENVB3210 (F) 0.50 ENVB4420 (W) 0.50 Faculty supervisor ENVB2040 (W) 0.50 Co-taught Brookfield, M. Professor Retired Dixon, M. Professor Sabbatical Dunfield, K. Associate SOIL3080 (F) 0.50 SOIL3080 (S) 0.50 Evans, L. Professor GEOL3190 (F) 0.50 LRS6360 (F) 0.50 LRS6730 (U)F 0.50 Faculty supervisor SOIL3060 (F) 0.50 LRS6380 (W) 0.50 GEOL4130 (W) 0.50 LRS6582 (U)W 0.50 Faculty supervisor Glasauer, S. Assistant GEOL2110 (F) 0.50 GEOL4240 (F) 0.50 Goodwin, P. Professor MICR3220 (F) 0.50 PBIO4000 (F) 0.50 ENVB6040 (F) 0.50 Cross-lst ENVB6452 (F) 0.50 Faculty supervisor ENVB6710 (F) 0.25 Co-taught ; Cr-lst LRS6900 (F) 0.25 Co-taught ; Cr-lst Gordon, A. Professor ENVB4420 (F,W) 0.50 Faculty supervisor ENVB4780 (F) 0.50 ENVB6560 (F) 0.50 ENVS2150 (F) 0.50 Co-taught Gordon, R. Professor Dean, Ontario Agricultural College

Page 43 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 44

Teaching Assignments for 2009/101

Faculty Member2 Rank Undergraduate Graduate3 Comments Guzman, E. Professor ENVB6451 (F,W) 0.25 Faculty supervisor ENVB2210 (F) 0.50 ENVB2210 (W) 0.50 ENVB6710 (F) 0.25 Co-taught ; Cr- lst LRS6900 (F) 0.25 Co-taught ; Cr-lst Habash, M. Assistant ENVB3030 (F) 0.50 ENVB3280 (F) 0.50 ENVB4420 (F) 0.50 Faculty supervisor ENVB6710 (W) 0.25 Cross-lst LRS6910 (W) 0.25 Cross-lst Hale, B. Professor LRS6581 (U)W 0.25 Faculty supervisor Hall, C. Professor ENVB3040 (W) 0.50 India semester Hallett, R. Associate ENVB3040 (F) 0.50 ENVB4420 (W) 0.50 Faculty supervisor NRS3000 (W) 0.50 ENVB6451 (W) 0.25 Faculty supervisor ENVB6452 (W) 0.50 Faculty supervisor Heck, R. Associate LRS6500 (U)S 1.00 Faculty supervisor Hilts, S. Professor NRS3030 (F) 0.50 NRS4110 (F) 0.50 Co-taught NRS2050 (S) 0.50 NRS2120 (S) 0.50 SOIL4070 (S) 0.50 Faculty supervisor Hsiang, T. Professor DTM3200 (F) 0.50 ENVB3160 (F) 0.50 ENVB3250 (F) 0.50 ENVB4420 (F) 0.50 Faculty supervisor Hunt, S. Assistant ENVB3270 (W) 0.50 ENVB3330 (W) 0.50 ENVB6451 (W) 0.25 Co Fac supervisor Lauzon, J. Assistant LRS6882 (U)F 0.50 Faculty supervisor AGR*2320 (F) 0.50 LRS6400 (W) 0.50 SOIL4090/4130 (F) 0.50 Cross-lst Lee, H. Professor MICR4180 (F) 0.50 ENVB6451 (F) 0.25 Marshall, S. Professor ENVB4260 (F) 0.50 Co-taught ENVB4420 (W) 0.50 Faculty supervisor

Page 44 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 45

Teaching Assignments for 2009/101

Faculty Member2 Rank Undergraduate Graduate3 Comments McBride, R. Professor NRS4110 (F) 0.50 Co-taught SOIL3050 (F) 0.50 Newman, J. Professor ENVB4420 (F,W) 0.50 Course coordin ; Faculty Supervisor ENVS1020 (F) 0.50

GEOL4180 (F) 0.50 LRS6730 (U)F 0.50 Course coordin SOIL4070 (F) 0.50 LRS6882 (U)F 0.50 Course coordin OAGR4180 (W) 0.50 Course coordin ENVB6452 (F,W) 0.50 Co course coordin ENVB6451 (W) 0.25 Faculty supervisor ENVB6452 (F,W) 0.50 Faculty supervisor LRS6581 (U)W 0.25 Course coordin LRS6582 (U)W 0.50 Course coordin LRS6241 (F,U)S 0.25 Course coordin SOIL4070 (S) 0.50 Course coordin ; Faculty supervisor O’Halloran, I. Associate DENM*4210 (W) 0.5 ENVM*1070 (W) 0.5 DARG*2150 (W) 0.5 Otis, G. Professor ENVB4260 (F,W) 0.50 Co-taught ENVB4420 (F) 0.50 Faculty supervisor ENVB4040 (W) 0.50 Parkin, G. Associate GEOL4110 (F,W) 0.50 LRS6500 (U)F,W,S 1.00 Course coordin ; Faculty supervisor GEOL4180 (F) 0.50 Faculty supervisor SOIL3070 (F) 0.50 LRS6280 (W) 0.50 LRS6440 (W) 0.50 SOIL4070 (F) 0.50 Faculty supervisor GEOL3060 (W) 0.50 Rennie, T. Assistant DAGR*1600 (F) 0.5 DAGR*3300 (F) 0.5 DAGR*3510 (F/W) 0.5 DAGR*4350 (W) 0.5 Ritter, L. Professor TOX2000 (F) 0.50 TOX6000 (S) 0.50 Co-taught Schmidt, J. Associate ENVB4420 (F) 0.50 Faculty supervisor ENVB2100 (W) 0.50 ENVB6452 (W) 0.50 Faculty supervisor

Page 45 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 46

Teaching Assignments for 2009/101

Faculty Member2 Rank Undergraduate Graduate3 Comments Scott-Dupree, C. Professor ENVB2040 (W) 0.50 Co-taught ENVB4100 (W) 0.50 ENVB6540 (W) 0.50 Cross-lst ENVB6451 (F,W) 0.25 Course coordin ENVB6452 (F,W) 0.50 Co course coordi ENVB6452 (W) 0.50 Faculty supervisor Sibley, P. Professor ENVB4220 (F) 0.50 ENVS4011 (F) 0.00 ENVS4012 (W) 0.50 ENVS3150 (W) 0.50 Co-taught Trevors, J. Professor Sabbatical Van Eerd, L. Associate DENM*3160 (W) 0.5 ENVM*1000 (F) 0.5 DENM*1000 (F) 0.5 Voroney, P. Professor OAGR3030/4160 (F) 0.50 Co-taught ; cr-lst OAGR4180 (W) 0.50 Faculty supervisor PBIO4100 (W) 0.50 LRS6340 (F) 0.50 LRS6500 (U)S 1.00 Faculty supervisor Wagner-Riddle, C. Professor MET2020 (W) 0.50 LRS6241 (F,U)S 0.25 Faculty supervisor MET3050 (W) 0.50 Warland, J. Associate MET4250 (F) 0.50 LRS6242 (F)U 0.50 MET4210 (W) 0.50 LRS6040 (W) 0.50 LRS6060 (W) 0.50 Watson, A. Assistant Sabbatical

Category 2 (Contractually Limited Faculty) Nicol, R. Assistant ENVM*2500 (W) 0.5 ENVB6452 (W) 0.50 Faculty supervisor BIOL*1040 (W) BIOL*1030 (F) 0.5 ENVM*1100 (F) 0.5 DENM*2100 (F) 0.5 BIOL*1040 (W) 0.5 ENVM*2500 (W) 0.5 Rooney, Neil Assistant ENVB4020 (F) 0.50 ENVS3150 (W) 0.50 Co-taught ENVB6452 (F) 0.50 Faculty supervisor

Category 5 (Adjunct and Emeritus Faculty) Alex, J. Emeritus

Page 46 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 47

Teaching Assignments for 2009/101

Faculty Member2 Rank Undergraduate Graduate3 Comments Barron, G. Emeritus - College Beauchamp, E. Emeritus Berkelaar, E. Adjunct Chesworth, W. Emeritus Chung, D. Adjunct Elrick, D. Emeritus Fletcher, A. Emeritus - College Gillespie, T. Emeritus MET2030 (F) 0.50 ENVS3160 (W) 0.50 Goss, M. Emeritus Groenevelt, P. Emeritus Hall, R. Emeritus - College Hanson, M. Adjunct Kaushik, N. Emeritus - College Hewitt, M. Adjunct Kevan, P. Emeritus ENVB6520 (F) 0.50 King, K. Emeritus Liss, S. Professor - Adjunct MacKenzie, R. Adjunct Martini, P. Emeritus Miller, M. Emeritus Morris, D. Adjunct Muir, D. Adjunct Parker, B. Adjunct Sears, M. Adjunct Shipp, L. Adjunct

Page 47 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 48

Teaching Assignments for 2009/101

Faculty Member2 Rank Undergraduate Graduate3 Comments Solomon, K. Emeritus ENVB4420 (F) 0.50 Faculty supervisor TOX2000 (F) 0.50 Co-taught ENVB/TOX4550 (W) 0.50 ENVB/TOX6530 (W) 0.50 Cross-lst TOX6000 (S) 0.50 Co-taught Sutton, J. Adjunct Stephenson, G. Emeritus - ENVB3030 (W) 0.50 College Tanha, J. Adjunct Thevasthasan, N. Adjunct ENVB3230 (F) 0.50 ENVB4420 (W) 0.50 Faculty supervisor Thomas, N. Adjunct Thompson, D. Adjunct Thurtell, G. Emeritus Van Straaten, P. Emeritus Woodcock, T. Adjunct ENVB2210 (W) 0.50 Co-taught Zhang, T. Adjunct Zheng, Y. Adjunct

2. Faculty listed under the same categories as in Table 1. 3. All courses are part of the program under review. 4. Course is cross listed as a undergraduate/graduate course 5. 0.5 credit may refer to course loads of 2-2, 2-3, 3-0, 3-2, or 3-3 (lecture hours-lab hours per week).

2.5. Commitment of faculty members from other graduate programs and/or from other institutions The proposed program will be delivered by faculty members within the SES. While it is expected that faculty members from other academic units, and adjuncts and/or emeritus faculty, will participate as guest lecturers, such involvement will be on an ad hoc basis and program delivery will not be dependent on their participation. Adjunct/Emeritus faculty currently involved in co- supervision include Hanson, Kevan, Liss, MacKenzie, Muir, Solomon, Sutton, Thevasthasan, Woodcock, and Zheng. Graduate students also benefit from the contributions of Special/Associate Graduate Faculty that serve as members of their advisory committees. These individuals come from a wide variety of disciplines and societal sectors and provide new perspectives and training opportunities for SES graduate students.

The SES faculty also participate in two graduate programs at the University of Guelph: the stand alone program in Biophysics (Biophysics Interdepartmental Group) and the collaborative program in Toxicology. At present, two faculty (Anand and Glasauer) have students enrolled in

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the Biophysics program and are co-supervised by faculty in the SES and the Physics Department. Several SES faculty members (Hall, Ritter, Scott-Dupree, Sibley, Solomon, Trevors) participate in the Toxicology program. Ritter and Solomon teach as part of the undergraduate program and Hall, Sibley, and Solomon contribute guest lectures in one of the graduate courses in this program.

3. PHYSICAL AND FINANCIAL RESOURCES

3.1. Library resources Appendix A provides a statement from the University’s Chief Librarian regarding the Discipline Assessment. This report includes data for the financial support of the collection over the past seven years. Overall, the library holdings are satisfactory for the areas encompassed within the field of environmental sciences and it is expected that the proposed graduate program will be served well by the library facilities. The collection of journals, accessible either as hard copies or through institutional electronic subscriptions include the vast majority of those routinely accessed by SES faculty members. Other facilities available through the library, such as the GIS centre, are also frequently used by SES graduate students.

3.2. Laboratory equipment and facilities The faculty, staff, and students involved with the SES graduate program are housed on campus in the Bovey Building and Alexander Hall , and off campus at Ridgetown (Nicol, O’Halloran, Van Eerd) and Kemptville (Rennie). Former EVB faculty and graduate students are housed in the Bovey Building while former LRS faculty and graduate students are housed in Alexander Hall. Alexander Hall is in the midst of a $33 million structural refurbishment (due for completion by the spring of 2011) that will transform it into a state-of-the-art science facility for faculty and graduate students. The move of LRS faculty and graduate students from the Richard’s building (former home of LRS) to Alexander Hall was completed in August of 2010. The buildings are situated in close proximity on campus, facilitating interactions between faculty members of the two former departments and some staff from both departments have either moved to the others building or spend half days in each to ensure an integrated administrative transition. Similar moves by some faculty have been discussed but not yet undertaken.

Within the two campus buildings, and the two regional campuses, individual faculty laboratories are well equipped for all types of research activity and the SES supports an extensive collection of both shared and individual faculty member laboratory and field equipment, including several walk-in cold and frozen storage facilities (and numerous refrigerators and freezers), extensive analytical equipment (high pressure liquid chromatographs, gas chromatographs, scintillation and gamma counters, spectrophotometers, nutrient analyzers, etc), genetic and molecular quantification equipment (PCR thermocyclers, microplate readers, etc.), numerous compound and stereo microscopes, freeze-dryers and drying ovens, autoclaves, balances, physiological and environmental quality equipment (pH, dissolved oxygen, conductivity meters), and numerous miscellaneous equipment housed in individual faculty member labs according to specialization. New and established SES faculty members have received Canadian Foundation for Innovation grants to purchase state-of-the-art equipment to facilitate research in their groups. We have not attempted to produce a comprehensive list of equipment available in the SES but would be happy to provide detailed information if the Appraisal Committee feels that this would assist them in their assessment.

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In addition to lab-specific equipment, shared equipment facilities, and general infrastructure, the SES faculty and graduate students have access to a number of other facilities under direct or cooperative control of the SES:

The Insect Collection. The insect collection is a world-class research and educational resource that represents Canada’s oldest collection. The insect collection is housed in a space-efficient compactor system consisting of moveable floor shelves that optimize the use of space in the facility. Approximately 3000 Cornell drawers contain over 2 million pinned insect specimens. The University of Guelph insect collection is known worldwide as an important collection of central and eastern Canadian insects in general, and a significant research collection of Diptera in particular, and serves as a focal point for research on the taxonomy, systematic, and evolutionary relationship of insects from Canada and around the globe. (http://www.uoguelph.ca/debu/)

The Kerr Plant Disease and Fungus Herbarium. Housed in the Bovey Building, this facility serves to aid faculty and graduate students to identify the causal agents of diseases of crop plants. The herbarium facilities are used to identify mushrooms and other fungi of concern to hospitals, industry, health groups, and the general public. It is also a depository for causal agents of diseases of common weeds and wildflowers of Ontario and the central location for projects related to biodiversity studies on fungi and plant disease.

The Honey Bee Research Centre. The Honey bee Research Centre is located at Townsend House on the University of Guelph campus. This facility maintains ten apiaries in the vicinity of Guelph and manages approximately 250 colonies of bees for research and teaching purposes. In addition, two isolated honeybee mating yards (one at Thorah Island in Lake Simcoe and one at Griffiths Island in Georgian Bay) are maintained for the bee breeding program. The Townsend House Honey Bee Research Centre includes a honey extraction facility, an instrumental insemination room, an indoor overwintering facility for honey bee colonies, two offices, laboratory space, a small woodworking shop, a beeswax rendering room, and a small classroom. This facility is used for research and teaching graduate and undergraduate students, for extension education, training of personnel in apiculture, and public demonstration activities. Additionally, the molecular biology laboratory in the Bovey building serves as a reference laboratory for bee breeding and diagnosis of diseases and pests in Canada. (http://www.uoguelph.ca/ ses/content/honey-bee-research-centre)

Controlled Environment Systems Research Facility. The CESRF, constructed at a cost of approximately $7.9 million, opened in 2001. The CESRF is an essential part of Canada’s contributions to plant research and development for astronomical and closed environment- related activities. The CESRF provides a complete research venue suitable for the measurement of plant growth, gas exchange, volatile organic compound evolution, and nutrient remediation in a precisely controlled environment. The facility is comprised of twenty-four sealed environmental chambers including nine variable growth hypobaric chambers capable of sustaining a vacuum. The facility fosters collaborative interactions among European, American, and Canadian specialists and serves to benefit research and education programs in both Europe and North America and interactions between research programs within the SES and industry. This modern facility and its equipment provide excellent opportunities for graduate student research and training. (CESRF: http://www.ces.uoguelph.ca/)

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Faculty and graduate students in the SES also have access to a large (>5,000 m2) greenhouse facility associated with the Bovey Building and to a number of field research stations operated by Plant Agriculture. These include the Elora Research Station (http://www.uoguelph.ca/plant/stations/elora/), the Muck Crops Research Station (http://www.uoguelph.ca/plant/stations/muck_crops/), and the Guelph Research Station (http://www.uoguelph.ca/plant/stations/guelph/).

The Biological Control Laboratory. The BCL is a specialized facility for research on pest management that focuses primarily on biological control and other non-chemical control tactics for insect pests. The BCL occupies a 511 m2 building adjacent to the Bovey Building. This facility contains 3 laboratories, 2 offices, a greenhouse (50 m2) for running experiments involving biological control agents and cultivation of host plants, a media room containing equipment for the preparation of insect diets, a potting room for preparation of experimental plants and a walk- in cooler used to store insects and field samples for research. In addition, there are 2 walk-in environmental chambers, 3 growth cabinets and 3 small light/temperature controlled rooms that provide space for experiments and rearing areas for small cultures of parasitic/beneficial insects and pest insects.

Pesticide Preparation and Application Facility. This laboratory provides a high quality, specialized, safe facility for working with pesticides. A precision, moving nozzle, pesticide application chamber can be calibrated to simulate a wide range of vehicle speeds, spray pressure, droplet sizes, nozzle heights, and sprayer outputs.

Plant Growth Facilities. The SES manages a plant growth facility consisting of twenty-five Conviron Growth Chambers and four plant growth rooms housed within the Bovey Building. The smaller chambers provide minimal to moderate conditions for controlling photoperiod, temperature, and humidity for growing plants. The four large, walk-in phytotron rooms are each approximately 15 m2 with separate controls for light, temperature, and relative humidity. Greenhouses are also available for faculty and graduate student projects in Alexander Hall and the biocontrol building adjacent to the Bovey Building. Finally, faculty and graduate students have access to a large greenhouse facility associated with the Department of Plant Agriculture on a user fee basis.

The Model Aquatic Ecosystem Facility. This outdoor research facility is located at the Guelph Research Station (Guelph Turfgrass Institute). Constructed in 1994, it consists of 30, 12,000 L below-ground microcosms that are supplied with water and potentially colonizing invertebrate biota by an on-site pond (itself fed by groundwater). The facility has been used for aquatic research studies ranging from fundamental ecology (e.g., predator-prey interactions, trophic cascades from natural disturbance impacts, etc) to the assessment of toxicity and risk assessment of emerging and historical contaminant classes (e.g., pesticides, fluorinated surfactants, pharmaceuticals, among many others). This facility has served as the focal point for numerous graduate research projects and a valuable resource for undergraduate and graduate teaching. (http://www.uoguelph.ca/ ses/content/aquatic-ecotoxicology-microcosms)

The Agroforestry Research Station. One of the oldest such centers in North America, this research site has been used extensively in graduate research and training pertaining to the use of trees in agriculture (inter-cropping, bioenergy production, etc).

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Guelph Arboretum. The University of Guelph campus is home to the Guelph Arboretum, which covers more than 165 hectares and includes open and forested sites and a small lake. The Arboretum serves as a site for SES graduate and undergraduate students to conduct field research and/or conduct field labs in support of teaching. Alan Watson is currently the Director of the Arboretum and Gard Otis served as the interim director for one year between 2009 and 2010. http://www.uoguelph.ca/arboretum/

Faculty and students in the SES use a variety of services offered through other academic units and/or centres on campus. Faculty members in the SES make use of the Guelph Biological Mass Spectrometry and Guelph Regional NMR Centre Facilities in the Science Complex on campus. Many faculty members in the SES use animal models in support of their research activities and some require access to services for the production of antibodies. These services are offered by the Central Animal Facility which provides a controlled environment and experienced staff for the maintenance of quality animal colonies, as well as the resources for preparing and administering protocols for animal use in research. The facilities are available to researchers on a cost-recovery basis.

3.3. Computer facilities All faculty and graduate students are provided with a central log-in account that provides email service, internet access, on/off-campus library resource access, security (e.g., virus and firewall protection) software, and productivity software (statistical software, graphics programs, word processing programs, etc). Graduate students typically also have access to computers in their labs and some faculty often have laptops that can be circulated as needed among students. In addition, some research groups have set aside dedicated areas (rooms) for computing purposes. All computers run a standard suite of software to support student research programs, and many support specialized software as dictated by the needs of a research group. Additional desktop computers are available on the first floor of the library. The library also offers access to statistical and geospatial software (http://www.lib.uoguelph.ca/resources/data_resource_centre/) that is routinely used by SES faculty and graduate students. All research and student offices are in the SES (Bovey Building and Alexander Hall) are serviced by high-speed internet access via ethernet connections, and the University of Guelph campus, including research and teaching buildings, is served by secure wireless internet access. Graduate students and faculty also have access to SHARCNET (Shared Hierarchical Academic Computing Network: https://www.sharcnet.ca), a powerful computer network which consists of more than 8,000 computers linked together via advanced fibre optics. Operated by a consortium of sixteen academic units (of which Guelph was one of the three major founding members), SHARCNET is designed to greatly accelerate complex computer-based research and analysis.

In summary, faculty and graduate students within the SES have access to excellent computing facilities and this is expected to continue into the foreseeable future.

3.4. Space The SES, located in the Bovey Building and Alexander and Graham Halls, enjoys excellent research facilities. The Bovey Building, which is shared with some faculty and graduate students from Plant Agriculture, consists of a complex of five interconnected buildings used for teaching, research and administration. Space allocation in the Bovey Building (including Graham Hall) is

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approximately 6,300 square meters (m2) with approximately 430 m2 (6.8%) for faculty offices, 375 m2 (5.9%) for shared graduate student offices (all graduate students are assigned an on- site office space and all such office spaces are located in rooms separate from the laboratory space), and 355 m2 (5.6%) for staff offices. Laboratory space includes 24 laboratories and 31 separate instrument/research support rooms and includes approximately 4450 m2 (70.3%) of the facility. Facilities which are shared with Plant Agriculture include nine meeting rooms, a library/reading room, and a mailroom.

Graham Hall, which is linked to the Bovey complex, has a 60-seat classroom, two smaller classrooms, and one wet and two dry undergraduate teaching laboratories.

The total space allocated to the SES in the recently refurbished Alexander Hall is approximately 3460 m2 with approximately 158 m2 (4.6%) for faculty offices, 166 m2 (4.8%) for graduate student offices, and 122 m2 (3.5%) for staff offices. Laboratory space includes 14 individual or shared laboratories and 6 separate instrument/research support rooms which comprise approximately 2443 m2 (77.3%) of the facility. The remainder of the space is allocated to meeting rooms (55 m2), storage (468 m2), a lounge and small meeting room (48 m2), and various small preparatory rooms.

Additional space is available to those graduate students within the SES that conduct their research at off-campus institutions under the guidance of Adjunct and cross-appointed professors. The amount of space varies and is difficult to quantify but in most cases includes both office and laboratory space.

Graduate students can take advantage of several amenities within the SES and the campus in general. The Bovey building contains a small library/reading room equipped with a small kitchen and can be used for quiet reading/study or breaks. The Bovey Building also contains student lounges at the site of the previous Greenhouse Café and in Graham Hall. Alexander Hall contains a lounge, equipped with a small kitchen, on the third floor. On campus, graduate students in the SES are located in close proximity to the University Center which includes a full cafeteria and a graduate student pub (“The Grad Lounge”). SES graduate students also have access to a full range of athletic facilities including (among other features), multiple gymnasia, fitness centers, squash courts, soccer pitches and baseball diamonds, two hockey rinks, a supplementary sports dome and an Olympic-sized swimming pool.

3.5. Financial support of graduate students In the SES, the expected completion time for a MSc by thesis program is 6 semesters, while the completion time for a MSc by coursework and research project is expected to be a minimum of 3 semesters. A PhD program is normally expected to take 9 semesters for completion, unless the student transfers into the PhD program from the MSc program, in which case the expected time of completion is 12 semesters. The minimum guaranteed duration of support by Advisors is 6, 9, and 12 semesters for those students in the MSc by thesis program, the PhD program, and those transferring from the MSc and PhD programs, respectively. This support may be in the form of scholarships or assistantships. Assistantships may be graduate teaching assistantships (GTA), graduate research assistantships (GRA) or graduate service assistantships (GSA). Non- scholar PhD students are guaranteed a minimum stipend of $17,500 per year for the 3 years, a ½ Graduate Teaching Assistantship (GTA, $2,500) and an additional $3,000 School Scholarship per year while within eligible program semesters. Non-scholar MSc students receive a stipend of $16,500 per year while within their eligible program semesters. Doctoral NSERC holders

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receive a minimum stipend of $21,000 per year plus an additional $10,000 per year, $5,000 from the University and $5,000 from the Advisor while holding an NSERC. Doctoral students whose NSERC funding has expired but who are still within the eligible semester period receive the same level of funding described above for non-scholar doctoral students. Masters NSERC holders receive a stipend of $17,500 per year plus an additional $7,500 per year, $5,000 from the University and $2,500 from the Advisor while holding an NSERC. Master’s students whose NSERC funding has expired but who are still within the eligible semester period receive the base funding of $16,500. International students receive the respective base funding plus an additional $3,000 per annum to help offset the higher fees incurred by these students. To help increase international graduate student recruitment, the university makes available to the SES between seven and ten annual competitive scholarships of $2000 to international students. Students in the MES by coursework program are normally not offered a stipend. Except under extraordinary circumstances, the SES does not accept self-funded or unfunded full-time graduate students in a research-based MSc or PhD. With the exceptions noted above, the SES does not guarantee GTAs to its graduate students and not all students receive a GTA. However, all GTAs that graduate students do receive contribute income in addition to the stipend criteria described above. All GTA assignments are governed by the terms of the University’s Collective Agreement (CA) with CUPE 3913 and SES graduate students must compete for available GTAs in accordance with that agreement. Due to budget constraints and the terms of the University’s CA, GTA units are not generally offered to students who are beyond their prescribed program period. Similarly, GRA support is also at the discretion of the advisor after the prescribed program periods, although most faculty members attempt to provide additional funding if available. Table 5 shows the amount of financial support received by MSc and PhD students in the SES over the past seven years (2003-2010) in the former LRS and EVB departments. Within the SES, all students are guaranteed funding during the 2 (MSc) or 3 (PhD) year residency period but are not guaranteed funding after this period.

For both MSc and PhD students, the average funding received between 2003 and 2010 exceeded the minimum guaranteed stipend level in LRS and was at or slightly below the minimum guaranteed stipend in EVB. The average funding per student in LRS has consistently exceeded the guaranteed minimum stipend over the past seven years, ranging from $16,544 to $21,666. The average funding per student in EVB has consistently fluctuated around the guaranteed minimu stipend, ranging from $14,704, $16,856. The higher average funding in LRS reflects the greater availability of GTAs dispersed among a smaller student pool relative to students in EVB; GTAs are provided over and above the guaranteed minimum stipend. The occurrence of average funding below the minimum stipend in EVB in some years reflects the inclusion of students who were beyond the OCGS residency period (the OCGS residency period is 6 and 9 semesters, respectively for an MSc and PhD; the average estimates in Table 5 for both LRS and EVB are based on full-time students up to and including 8 and 12 semesters for the MSc and PhD programs, respectively). In most cases, faculty continue to fund students who extend 2 (MSc) or 3 (PhD) semesters past their residency period but records of funding for such students are not kept. Thus, it is possible that a small proportion of such students past their residency period did not receive a stipend; such students would be counted toward the total.

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TABLE 5

Financial Support for Master’s and Doctoral Students

$ Amount of Support From Students Funded

External Univ TAs RAs Other 2 3 1 Scholarship Scholarship Total # (%) Av $ Year Unit (#) (#) (#) (#) (#) 2003-04 ENVB 235,449 (41) 196,254(98) 19,427 619,241 14,217 1,084,588 70 (69%) 15,494 LRS 34,766 (6) 103,111(44) 101,700 328,839 27,170 595,586 36(86 %) 16,544 2004-05 ENVB 194,130 (72) 150,034 (36) 15,951 589,227 14,775 964,117 64 (70%) 15,064 LRS 121,933 (23) 82,000 (35) 117,816 383,686 27,313 732,748 39 (75%) 18,788 2005-06 ENVB 253,259 (81) 175,122 (42) 21,312 508,339 12,441 970,472 66 (72%) 14,704 LRS 82,801 (14) 109,950 (44) 90,823 484,206 27,442 795,222 43(78%) 18,493 2006-07 ENVB 244,202 (73) 129,542 (39) 38,051 557,375 10,104 979,274 61 (73%) 16,053 LRS 53,067 (10) 132,883 (60) 122,500 456,309 36,917 801,676 37 (80%) 21,666 2007-08 ENVB 210,176 (97) 177,156(32) 48,863 615,474 18,951 1,070,620 66 (72%) 16,221 LRS 68,534 (10) 114,516 (54) 112,439 349,773 44,629 689,891 38 (83%) 18,155 2008-09 ENVB 268,344(50) 198,682(108) 3,553 655,737 3,092 1,129,408 67 (68%) 16,856 LRS 78,498(10) 121,344(72) 100,754 417,520 60,012 778,128 40 (78%) 19,453 2009-10 SES 425,233 (20) 360,585 (85) 14,7904 369,1604 11,4374 1,181,205 133(85%) NA 2010-11 SES5 17,001 (7) 45,001 (5) NA Na Na 965,877 113 (78%) NA 1. Data are for the annual period of September 1st to August 31st. 2. # = number of full-time student registered for at least one semester in the calendar year; % = percentage of full-time students that received funding during any part of the calendar year. 3. Average funding per student, per active semester times 3 for an annual average (includes all full-time, active on-campus students. Excluded in this calculation are students on leave, non-resident students, part0time or employed students. 4. Spring 2010 only 5. Fall 2010 only

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4. PROGRAM REGULATIONS AND COURSES

4.1. The intellectual development and the educational experience of the student The research intensive nature of the various disciplines within the SES requires that students interact continuously with their advisors, colleagues, other graduate students, and faculty. To effectively promote such interactions, where possible, the offices and laboratories of faculty and graduate students working in similar fields and areas of interest are grouped together on individual floors within the Bovey Building and Alexander Hall. In general, there is a highly positive atmosphere of cooperation and collaboration in the School and in the university, and students are encouraged to regularly contact and discuss or attend seminars on topics of interest with faculty within the School and in other departments with related interests. For example, various aspects of plant science, earth science, biodiversity, and environmental health are studied within other departments on campus. When graduate students first arrive on campus, they are typically introduced to their colleagues via an introductory social gathering. They are also encouraged to participate in a number of workshops and orientation functions including a library orientation, GTA orientation (sponsored by Teaching Support Services), animal care facility tour (required by students working with ), and the Workplace Hazardous Materials Information System orientation.

There are several mechanisms by which SES graduate students are made aware of the requirements of their programs. All students are directed to the Graduate Calendar (http://www.uoguelph.ca/registrar/calendars/graduate/current/), which outlines the basic requirements for the degree and rules established by the university. Students are also directed to the SES graduate documents outlining specific policies and guidelines within the SES (http://www.uoguelph.ca/ses/sites/uoguelph.ca.ses/files/SES_Graduate_Policies_and_Guideline s.pdf). Students are also encouraged to speak with the Associate Director for Graduate Studies or the Graduate Secretary in the SES. Students are also sent reminders by email and postings on area bulletin boards about upcoming deadlines (e.g., scholarships, registration, applications for GTAs, etc) and events. The university holds annual workshops to help students prepare applications for major scholarships such as NSERC and OGS, and additional workshops and information is available through the Learning Commons based in the university library.

Students are exposed to the learning community at the University of Guelph through attendance at seminars and workshops within the School, College and University. Lists of speakers and topics from various seminar series in the SES and the broader university campus are regularly distributed by email or posted on area bulletin boards. Invited speakers are often available during their visit to meet with graduate students and faculty. The diversity of topics that are regularly available helps to strengthen the students’ background and to promote a keen sense of awareness and appreciation of science and its place in society.

Many of the research programs within the SES work in close association with potential user groups, and the formal and informal meetings and collaborations between researchers and end- users represents an ideal opportunity for student’s to gain additional relevant research experience and a strong sense of the relevance of their research. In the SES, user groups vary widely but include numerous industry groups, government agencies, non-governmental organizations, and First Nations.

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Recognizing that graduate students must have excellent communication skills, the SES provides students with numerous opportunities to “practice” communication. Most faculty members strongly encourage, and provide financial support for, students to attend and present the results of their research at user group meetings, and/or national and international scientific conferences. Although travel expenses are typically borne by the advisor from their research grants (students are expected to present a paper or poster), some travel grants also available through the SES, College, university, or scientific organizations. Students within the SES regularly receive awards for the quality of their presentations. These awards reflect the importance placed by the School on the development of communication skills, as emphasized by the requirement that students take Introductory Seminar (ENVB 6710 and LRS 6900; these have been offered as a combined course since 2009) in which students develop and present to SES students and faculty proposals related to their research. As part of the proposed graduate program, two new courses, Advanced Topics in Environmental Science and Seminar in Environmental Science, both of which will strongly emphasize “literacy”, a key university learning objective, will be offered to all students within the SES.

Every student (including those in the Coursework Master’s degree) is supervised by a research advisor and an Advisory Committee. The Advisory Committee is established for each graduate student by the end of the first (recommended) or second (required) semester of study and consists of additional members of the graduate faculty (1-2 for MSc by thesis and coursework and 2-3 for PhD students) from within or outside of the SES. The daily-to-weekly interactions between the student and Advisor provide the direction for the student’s research activities as do periodic (at least once per semester) meetings with the Advisory Committee, who are equally committed to the success of the student. Meetings with their Advisory Committee are used as an opportunity to present the results of their coursework and research, and to develop solutions for any problems that may have arisen. The School encourages regular committee meetings to support the communicative process between student and faculty, and to provide fair and constructive criticism when required. Students are also encouraged to meet informally with members of their Advisory Committee and other faculty as needed to resolve more specific issues that may arise.

Graduate students are encouraged to actively participate in School affairs. Students are expected to attend seminars presented by School faculty members or speakers from outside the School that are held on an ad hoc or planned basis. All committees within the SES (except the Advisory Committee) have graduate student representation, established by election through the Graduate Student Committee or by appointment by the Director. Two graduate students are elected to serve as student representatives to faculty meetings. Student representatives to committees are asked to suggest items for the agendas for committee meetings. One student representative is asked to sit on the selection committee for new faulty. In some cases, graduate students are also encouraged to participate in advising undergraduate students enrolled in the undergraduate research course. The School hosts several social functions each year (e.g., the coffee cart in the old Greenhouse Café, the annual Valentine’s Day, Halloween and Christmas parties, periodic ice cream socials, annual staff-student soccer match) which the students organize solely or play a key role in organizing.

Many graduate students in the SES also have the opportunity to gain teaching experience by acting as Graduate Teaching Assistants (TA). Teaching Support Services (TSS) offers an annual TA workshop which introduces students to the issues and challenges associated with teaching responsibilities and provide them with the tools to meet these challenges effectively and professionally. Many senior graduate students, particularly those in the PhD program, also

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participate to varying degrees in the supervision of undergraduate students carrying out senior research projects and summer students. This provides invaluable experience in research supervision, which aids them in their careers, especially those interested in academia.

4.2. Program regulations 4.2.1 General

The graduate program in the SES is the responsibility of all graduate faculty, staff and graduate students, and administrative activities are coordinated through the Graduate Program Committee within the School. The Graduate Secretary and Associate Director (Graduate Studies) are responsible for overall coordination of graduate studies within the SES. All general inquiries on graduate studies within the SES can be directed to them. Within the Graduate Studies Committee, the Admissions Sub-Committee has primary responsibility for determining the admissibility of applicants to graduate programs within the School. The Associate Director (Graduate Studies), or the Chair of the examination committee as designated by the Associate Director, is responsible for coordinating the PhD qualifying examination and final examinations of MSc and PhD students, and for ensuring that high academic standards are maintained. The Awards Sub-Committee is responsible for coordinating applications for various scholarships and awards within the SES.

Prospective students may apply to the graduate program of the SES at any time but may enter graduate programs only at the start of a semester (Fall - September; Winter - January; Summer - May). The Graduate Secretary or Associate Director of Graduate Studies responds electronically or by mail to provide information on the application procedure, information on eligibility, language requirements, financial assistance, SES guidelines, and any other general information about the SES if requested. All aspects of the application process are handled electronically via the web.

When a new application is received, a file is initiated. Each application must include: an application form, a statement of interest, official university transcripts, two letters of reference, and the results of a TOEFL examination if the applicant’s native language is not English, and an application fee. Each file is then circulated to the Graduate Admissions Committee (Chaired by the Associate Director of Graduate Studies and comprised of two other graduate faculty members, selected to reflect broad areas of interest within the SES) to initiate the assessment process. Each member of the committee recommends that the application be accepted, rejected, or accepted on a provisional basis.

4.2.2 Admission Standards

The School’s admission standard for the MSc program is the same as the University and requires a four-year, honours science degree with a minimum B- (70-72%) average during the final two years (4 semesters) of full time undergraduate study. Meeting the minimum requirement (B-) does not guarantee entrance; depending on other criteria (e.g., letters of reference, standardized test scores, academic background relevant to the area to which the applicant has applied) students may be considered for admission with provisional status. Students on provisional status must obtain a “B” average ($70%) in at least two graduate courses during their first two semesters of study to continue in the program. Provisional students will be funded at the same level as regular students.

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The SES offers a Master’s degree by course work that originated in the former LRS. This degree is subject to the same entry standards as the thesis-based MSc. Candidates for the MSc degree by course work must complete a minimum of 4.0 credits, including one credit from the Land Resource Science Research Project, LRS*6500 (two semesters, 1.0 credit) and at least two credits from courses in one of the four fields (below). The research project will be a detailed, critical review of an area of study related to the specialization chosen by the student including analyses and interpretations of relevant data. The student may or may not be involved in collecting the data. The content of the research project will be presented to the department as a seminar. A revised MSc degree by Coursework Master’s, including changes to course designations, additional courses, and admissions procedures will be presented following a review of the graduate curriculum for the SES.

Admission to the PhD program is generally restricted to students with a recognized MSc degree in a related field obtained with a minimum academic standing of “A-“ (≥80%) in their postgraduate studies. Students who meet the minimum University requirement (73-76%) but not the School requirement (≥80%) may be considered for admission with provisional status. Students on provisional status must obtain an “A-“(≥80%) average in at least two graduate courses during their first two semesters of study to continue in the program. Provisional students will be funded at the same level as regular students. In exceptional cases, students may enter the PhD program directly from a BSc (Hons) if they have the minimum requirements as defined by Graduate Program Services of the University of Guelph.

Students who are currently enrolled in the MSc program in the SES are encouraged to consider transferring to the PhD program. As the decision to transfer to a PhD may hold a number of personal and professional implications, students are encouraged to discuss this with their Advisor, the Associate Director of Graduate Studies, and/or their colleagues. In order to complete a transfer, the following are required: 1) The student must apply during Semester 3 or 4 of their MSc program; 2) the student must have a good quality undergraduate degree (normally B+ to A, with an average mark of ≥77% for the last 4 semesters); 3) the student must have completed at least 1.0 graduate level course credits (two 0.5-credit graduate courses), plus a Seminar or equivalent course, recognized for credit at the University of Guelph, with an average of at least “A-“ (≥80%); and 4) a statement signed by all members of the Advisory Committee clearly articulating the research potential of the student This package is sent to the Graduate Admissions Committee for review and assessment, and then the Director of the SES for approval. The transfer becomes effective the semester following official approval.

Prior to applying, students are strongly encouraged to obtain the support of a faculty member provisionally willing to serve as their thesis advisor. This ensures that a potential applicant has completed research into the feasibility of graduate work in the SES prior to submitting their application. This recommendation is intended to save the applicant unnecessary time and application fees, and reduces the investment of time by staff in processing applications from candidates who are unlikely to be admitted because of space and resources constraints. Note, however, that potential advisors cannot offer acceptance into the program; this decision is the domain of Graduate program Services and the SES Graduate Studies Admission Committee.

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4.2.3 Degree Requirements The graduate program in the SES consists of a degree by thesis at the MSc and PhD level and a Coursework Master’s offered through the former LRS department. With this Appraisal Brief, the SES will expand the Coursework Master’s degree such that it is available to all faculty members of the SES, as well as develop a Graduate Diploma.

The Graduate Diploma (proposed) requires:

 Completion of 2.0 credits (four courses, each worth 0.5 credits)

In the Graduate Diploma program, students are evaluated on a pass/fail basis. An acceptable Graduate Diploma consists of completion of all course requirements.

The MSc coursework program (existing) requires:

 Completion of 3.0 credits (six courses)

 Completion and presentation of the results of a project (1.0 credits)

The project and presentation of the results are evaluated on a pass/fail basis. An acceptable Coursework Master’s thesis consists of successful completion of course requirements and a defensible account of the student’s project. The project may include analysis of a data set (derived from lab, field, or computer simulation), or major, critical literature review. The data may come from a pre-existing source or from measurements performed by the student.

The MES coursework program (proposed) requires:

 Completion of either 3.0 credits (six 0.5 credit courses in the project option) or 4.0 credits (eight 0.5 credit courses in the coursework-only option)

 Of the 3.0/4.0 credits, completion of two courses (Advanced Topics in Environmental Science and Seminar in Environmental Science)

 Completion and presentation of the results of a project (1.0 credits)

The project and presentation of the results are evaluated on a pass/fail basis. An acceptable Coursework Master’s thesis consists of successful completion of course requirements and a defensible account of the student’s project. The project may either be completed at the University or as part of a placement with an approved non-academic agency. The project may include analysis of a data set (derived from lab, field, or computer simulation), or major, critical literature review. The data may come from a pre-existing source or from measurements performed by the student.

The MSc thesis program requires:

 At least 1.5 graduate course credits, including one mandatory 0.25 credit course (Introductory Seminar).

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 Completion and defense of a thesis on research carried out under the direct supervision of a core faculty member.

The thesis and the oral defense of the thesis are evaluated on a pass/fail basis. An acceptable MSc thesis consists of a defensible account of the student’s research. The project is expected to represent a well-defined research problem, or hypothesis, and should be planned such that the clarity of the underlying rationale, the appropriateness of the technical approach, the research, and the critical evaluation of the results could normally be completed and the thesis defended within six semesters.

The PhD program requires:

 Completion of one mandatory 0.25 credit course (Introductory Seminar).

 Successful completion of a qualifying exam within five semesters of first registration in the program

 Successful defense of a thesis describing original research, carried out under the direct supervision of a core faculty member.

In the PhD program, the qualifying exam, thesis and the oral defense of the thesis are evaluated on a pass/fail basis. An acceptable PhD thesis consists of an authoritative report of the student’s research. The project is expected to represent a well-defined research problem, or hypothesis, and should be planned such that the research could normally be completed and the thesis defended in nine semesters (12 semesters for those students transferring from the MSc program). The research described in the thesis must represent a significant contribution to knowledge in that field. Emphasis is therefore placed on the quality of the presentation, maturity in scholarship, breadth and depth of the work, and critical judgement. Successful completion of the PhD thesis occurs when the research is judged to be sufficiently meritorious to warrant publication in reputable, peer-reviewed journals in its field. PhD students are normally expected to have published, or have “in-press”, one or more papers in peer-reviewed journals prior to the defense. In cases involving intellectual property, it is recognized that publication may not always be immediately possible. In such cases, a Pass will require that the committee is satisfied that, in their opinion, the work is of sufficient quality and originality that it would meet the standards for peer-reviewed publications.

4.2.4 Regulations for Thesis Evaluation The guidelines issued to faculty, graduate students, and Chairs of Thesis and Qualifying Examination Committees are contained in the SES policies and guidelines document (http://www.uoguelph.ca/ses/sites/uoguelph.ca.ses/files/SES_Graduate_Policies_and_Guideline s.pdf) and are provided in Appendix B.

The MSc thesis Examination Committee consists of four people with no more than 50% of the entire Examination Committee from the Advisory Committee. Members are selected by the Advisory Committee as follows:

1. A member of the Graduate Faculty who is not a member of the Advisory Committee is appointed to act as Chair of the Examination by the Graduate Program Committee by the authority of the Director of SES on behalf of the Dean (typically a faculty member in the

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SES). The chair will ensure that the thesis defense is conducted correctly and that the student is treated fairly; 2. A member of the Candidate’s Advisory Committee (normally, the Advisor); 3. A member of the Graduate Faculty, Associate Graduate Faculty or Special Graduate Faculty who may be a member of the Advisory Committee; 4. A fourth member may be appointed from among Graduate Faculty from another Department, or from SES, but not from the Advisory Committee (the “internal external”).

For the Coursework Master’s, students must submit a research paper to his/her advisor at least four weeks prior to the end of the semester of submission. The student’s advisor will evaluate the paper on a numeric grade basis. If the paper is deemed unsatisfactory, the student will be given an opportunity to make corrections and re-submit it. A second unsatisfactory result constitutes a recommendation to the Board of Graduate Studies that the student be required to withdraw (see Unsatisfactory Progress and Appeals of Decisions on the Graduate Calendar).

Each student will present a 15-minute seminar to the School in the last week of their second semester of registration. It is anticipated that the seminar will be in the form of a conference paper oral presentation.

The PhD thesis Examination Committee consists of five people with no more than two members of the Examination Committee from the Advisory Committee. Members are selected by the Advisory Committee and are as follows:

1. A member of the Graduate Faculty who is not a member of the Advisory Committee is appointed to act as Chair of the Examination by the Associate Director of Graduate Studies by the authority of the Director of SES on behalf of the Dean (typically a faculty member of the School of Environmental Sciences). The chair will ensure that the thesis defense is conducted correctly and that the student is treated fairly; 2. A member of the Candidate’s Advisory Committee (normally, the Advisor); 3. A member of the graduate faculty, the associated graduate faculty, or special graduate faculty who may be a member of the Advisory Committee; 4. A fourth member from among graduate faculty normally from another Department or School at the University of Guelph (the “internal external”). 5. A fifth member who has a doctoral degree, is an expert in the area, and is from outside the University, is the external examiner. The external examiner is selected by the Associate Director (Graduate Studies) from a list of two or more nominees provided by the Advisory Committee. To facilitate this, CVs may be requested by the Associate Director (Graduate Studies). The external must be free of conflict of interest and may not have worked with or published with the Candidate or the Advisor(s) within the previous five years, not be adjunct, associate or special faculty in any Department or School at Guelph, must not be a previous student or supervisor of the Advisor(s), and must declare that they are free of any conflict of interest.

In normal practice, the Advisor(s) contact(s) these individuals in advance to determine their willingness and availability to serve on the Examination Committee, including reading and commenting on the thesis and participating in the thesis defense on several possible defense dates. This preliminary informal contact should not be confused with the formal invitation to

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serve on the Committee that comes from the Associate Director (Graduate Studies) after deciding on which of the nominees to formally invite to serve.

The PhD Qualifying Examination

The Qualifying Examination provides an opportunity to ensure that students have acquired an in-depth understanding of their area of research and in the broader aspects of scientific research and knowledge. For faculty, the Qualifying Examination provides an opportunity to assess the student’s breadth and depth of understanding of the subject area and related fields, technical competence, analytical skills, capacity for critical thinking and to identify a student’s weaknesses that can be addressed within our graduate program. As the name implies, upon successful completion of the Qualifying Examination, a student qualifies for the status of PhD Candidate. Thus, the Qualifying Examination allows the School to determine if a student is ready to progress to the dissertation stage of the doctoral degree.

Preparation for the Qualifying Examination involves a period of study and preparation (typically 2-3 months). There are numerous strategies that students can use to cope with the challenge of taking the Qualifying Examination; some of these are outlined in the Qualifying Primer document prepared by students who have previously completed the examination (PhD Qualifying Primer).

According to University regulations, PhD students should complete the Qualifying examination before the end of the 5th semester of study. The guideline of the School requires that this examination be completed even earlier, preferably at the beginning of the 5th semester, so that, in the event a second examination is needed, it can be completed before the end of the 5th semester. For students who are switching from MSc to the PhD program without completing the MSc, the University stipulates that the Qualifying Examination must be completed before the end of the 7th semester, while the School suggests that this examination be completed by the end of the 6th semester.

4.2.5 Progress Reports and issues related to progress Graduate student evaluation reports are completed each semester and copies are provided to the student, Advisory Committee members, and the Associate Director of Graduate Studies. The Associate Director (Graduate Studies) signs each report and investigates when progress has been cited as less than satisfactory. In such cases, a remedial action plan is developed with the Advisory Committee, student, and The Associate Director (Graduate Studies) to assist the student to return to a satisfactory level of progress. In the event of a dispute, the University has guidelines for conflict resolution and, typically the Dean of Graduate Program Services may help to identify a resolution. In all cases, disputes are resolved at the lowest possible level. Graduate Program Services has detailed appeal procedures that can be used when disputes have not been solved at the School level, and these are outlined in the Graduate calendar.

4.2.6 Language Requirements The SES only requires students to be proficient in the English language.

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4.2.7 Distance Delivery No aspects of the SES graduate program are currently offered by distance education. However, consideration will be given to the possibility of offering part of the four new courses proposed for the Graduate Diploma using a distance education format.

4.3. Part-time studies Students may enrol in any of the degree programs offered through the SES on a part-time basis. Generally, students will declare part-time status at the time of admission but may also transfer to part-time status during their program. Part-time status is granted by the Admission and Progress Committee of Senate to those students who, for example, are employed for more than 10 hours per week, when it becomes inconvenient geographically, or for medical and/or compassionate reasons. Students enrolled on a part-time basis are considered to have completed one-third of a semester for each semester of enrolment. Such students are subject to all of the same requirements (eg., course credits) as full-time students.

4.4. Total graduate courses listed and level Table 7 lists the graduate courses offered during each of the past three years with the corresponding faculty assignments and enrolments. Also listed in Table 7 are all undergraduate courses available to and taken by graduate sources over this period. A listing of current graduate courses and proposed courses, with course descriptions, is provided in Appendix C.

Following the creation of the SES, the Graduate Studies Committee has been reviewing the graduate curriculum from the two founding departments with the goal of eliminating courses no longer offered (or not likely to be offered due to retirements), ensuring that courses are offered at least once per annum and which attract a critical mass of graduate students, providing flexibility while at the same time avoiding overlap, and creating new courses in strategic areas commensurate with the enhanced spectrum of SES research expertise and the proposed new graduate degrees. All courses previously coded as either LRS or ENVB will be re-designated as ENVS 6XXX pending approval by university curriculum governance committees.

In support of the proposed Coursework Master’s and Graduate Diploma, and for students to benefit from recent advances in the field of environmental sciences, six new courses have been developed for the SES graduate curriculum: 1) Topics in Environmental Science, 2) Seminar in Environmental Science, 3) Geology and Morphology of Ontario Landscapes, 4) Classification and Assessment of Aquatic Systems, 5) Survey and Interpretation of Soils, and 6) Ecological Processes in Forest Systems. These course proposals have just entered the University’s governance process and have thus not yet been assigned course number designations.

The Advanced Topics and Seminar courses have been developed as core courses for the Coursework Master’s program. However, these courses will also be open to thesis-based students. Similarly, the courses that have been developed as part of the Graduate Diploma will be available to all thesis-based students. The design of these courses is such that they will be

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coordinated by one faculty member but will include participation from up to several faculty members within the SES. The School allows some latitude in format among faculty and courses, depending on enrolments and the nature of the material being covered in any given offering.

MSc and PhD thesis-based students are encouraged to complete their course requirements during the first three semesters of their program. Only one course, Introductory Seminar (currently a combined offering of ENVB 6710/LRS6900; this course will be renamed ENVS 6XXX pending approval by university curriculum governance committees) is currently required of MSc and PhD thesis-based students. This course provides information and training in proposal writing and scientific presentations. Students will prepare a written proposal based on their research and make an oral presentation of their proposed studies. Students are expected to take this course in the first or second semester of study.

The Coursework Master’s is designed to provide a short-term (one-year) graduate program that emphasizes an advanced breadth and depth of knowledge and understanding, from theoretical to practical, in the field of environmental sciences relative to the undergraduate level. Coursework Master’s students will be required to take two core courses, Advanced Topics in Environmental Science and Seminar in Environmental Science. The calendar descriptions for these courses are:

ENVS 6XXX Advanced Topics in Environmental Science [F0.5]. The Advanced Topics course will use a case-study approach, presented as five two week modules that draw from current and/or historical issues in the environmental sciences (e.g., environmental economics, toxicology, land and/or water resources, ecological systems, climate change, etc.) to develop an in-depth understanding of the science underlying the issues, how the issue was managed, and the effectiveness of associated policies, emphasizing the relationship between the science and policy.

ENVS 6XXX Seminar in Environmental Science [W 0.5]. The Seminar course will provide an interactive forum for students to participate in an advanced discussion on current environmental issues and problems. Using a combination of oral presentations by students and guest lecturers, written assignments, and class projects, students will be given the opportunity to discuss and debate current issues in environmental science.

While students in the Coursework Master’s program will have access to a number of graduate courses that emphasize practical training and experience, they will also have access to the four Diploma courses described below.

The goal of the Graduate Diploma is to provide highly focused practical training and experience within specific disciplines in the SES. The Graduate Diploma will be targeted to recent undergraduates, graduate students, and professionals seeking enhanced practical knowledge and experience associated with the application of technologies and methods used in the emphasized areas. Students in the Graduate Diploma will be required to take four courses:

ENVS 6XXX Geology & Geomorphology of Ontario Landscapes [S 0.5]. A two-week course covering concepts and techniques related to the geology and geomorphology of the southern Ontario landscape. Focus will be given to the characterization and interpretation of geological formations and their influence on soil and water processes at the landscape level.

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ENVS 6XXX Classification and Assessment of Aquatic Systems [S 0.5]. A two-week course covering concepts and techniques related to the physiographical, hydrological, and biological characterization of various water bodies. Focus will be on southern Ontario water bodies and will involve periodic excursions to regional water bodies in southern Ontario for the purpose of demonstrating theoretical principles, sampling techniques, and collecting samples for in-lab assessment and metric determination.

ENVS 6XXX Survey and Interpretation of Soils [S 0.5]. A two-week course covering concepts and techniques related to the characterization of soil in the landscape. Focus will be given to soilscapes encountered in southern Ontario, and involves a week-long excursion to examine the distribution of soils in this region

ENVS 6XXX Ecological Processes in Forest Systems [S 0.5]. A two-week course covering concepts and techniques related to the ecological characterization of forests. Focus will be on southern Ontario forests and will involve periodic excursions to locations in southern and mid- central Ontario for the purpose of demonstrating theoretical principles, sampling techniques, in- field measurements, and collecting samples for in-lab assessment and metric determination.

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TABLE 7

Courses Offered to Graduate Students in the Past Three Years

Course1 Faculty member(s) responsible2 2007-08 2008-09 2009-10 ENVB3210 G. Boland 1GAUD/28U 0G/36U 2G-1AUD/24U ENVB3280 M. Habash 1GAUD/13U 0G/8U 0G/12U ENVB3300 P. Kevan 1GAUD/18U Not offered ENVB4020 P. Sibley F07 1G/21U N. Rooney F08 0G/22U 0G/33U ENVB4040 G. Otis 0G/39U 1GAUD/28U 0G/48U ENVB4070 K. Jordan (PAGR) 0G/10U 1G/10U 1G/11U ENVB4240 J. Schmidt/C. Hall (cross-lst with 1G/43U 0G/35U Not offered ENVB6550) 1UAUD ENVB6040 P. Goodwin/A. Nassuth (MCB) 3G/0U 7G/0U P. Goodwin F09 (cross-lst with 6G/0U PBIO4000) ENVB6060 G. Boland Cancelled 1G/0U ENVB6190 J. Trevors 8G/0U ENVB6340 S. Marshall 6G/0U ENVB6370 J. Schmidt 2G/0U 2G/0U ENVB6451 C. Scott-Dupree (course coordinator) 2G/0U 8G/1U 7G/0U ENVB6452 C. Scott-Dupree 21G/1U 13G/1U 3G/6U J. Newman (co course-coordinators) ENVB6520 P. Kevan 1G/1U 1G/0U 5G/0U ENVB6530 K. Solomon (cross-lst with 4G/0U 1G/0U 1G/0U TOX6530/ENVB4550/TOX4550) ENVB6540 C. Scott-Dupree (cross-lst with 4G/0U 6G/0U 1G/0U ENVB4100) ENVB6550 J. Schmidt/C. Hall (cross-lst with 1G/0U 4G/0U ENVB4240) ENVB6560 A. Gordon/S. Hunt 2G/0U 7G/0U A. Gordon F09 4G/0U

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ENVB6710 P. Goodwin/E. Guzman (F) 14G 7G 12G M. Anand/M. Habash (W) 12G 10G M. Habash (W10) 10G ENVB6720 C. Scott-Dupree/C. Hall/K. Solomon/ 23G S. Marshall (F07) trial GEOL3060 Sessional W08 1GAUD/118U G. Parkin W09/10 97 enrolled 0G/108(U) GEOL3130 P. Van Straaten 1GAUD/45U 45 enrolled Cancelled GEOL3190 L. Evans 1GAUD/33U 37 enrolled 2G-1AUD/46U GEOL4240 S. Glasauer 1GAUD/9U LRS6040 J. Warland Cancelled Not offered 6G/2U LRS6060 J. Warland Cancelled 6 enrolled 1G/0U LRS6241 J. Newman (course coordinator) S10 1G/0U LRS6242 J. Warland 2 enrolled 12G/0U LRS6280 Gary Parkin 3 enrolled 5G/0U LRS6320 Cancelled W08; Not offered W10 LRS6340 P. Voroney 1 enrolled 3 enrolled 8G/0U LRS6360 L. Evans 6 enrolled 11 enrolled 7G/3U LRS6380 L. Evans 2 enrolled 4 enrolled 2G/6U LRS6400 J. Lauzon 9 enrolled 10G/0U LRS6420 Last offered F08 LRS6440 G. Parkin Not offered 15G/0U LRS6500 G. Parkin (course coordinator) 1 enrolled 9G B. Hale (course coordinator) 1 enrolled LRS6581 S. Hilts (course coordinator) 2 enrolled J. Newman (course coordinator) W10 1G/0U LRS6582 S. Hilts (course coordinator) 4 enrolled 5 enrolled J. Newman (course coordinator) W10 1G/0U LRS6700 E. Arnaud 4G/0U LRS6710 E. Arnaud 1G/0U

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LRS6730 S. Hilts (course coordinator) 1 enrolled S. Glasauer 3 enrolled J. Newman (course coordinator) F09 1G/0U LRS6760 R. Heck 2 enrolled LRS6881 S. Hilts (course coordinator) 1 enrolled LRS6882 S. Hilts (course coordinator) 5 enrolled J. Newman (course coordinator) F09 1G/0U LRS6900 J. Warland (course coordinator) 14 enrolled B. Hale (course coordinator) 14 enrolled E. Guzman/P. Goodwin 8G LRS6910 J. Warland (course coordinator) 12 enrolled 14 enrolled M. Habash W10 2G MET3050 C. Wagner-Riddle 28 enrolled 1GAUD/33U Sessional (I. Lee) 26 enrolled MICR3220 P. Goodwin 1GAUD/21U 0G/27U 0G/29U MICR4140 J. Trevors 0G/27U 3GAUD/27U Sessionals (P. Bajwa/S. Saleh) F09 0G/17U MICR4180 H. Lee 2GAUD/26U 1GAUD/27U 2GAUD/30U SOIL2010 M. Goss (K2) 21 enrolled 26 enrolled D. Young (R1) 9 enrolled 17 enrolled 0G/12U J. Andrews (K2) 33 enrolled Lecturer (C. Fitzgibbon) F07/08/09 30 enrolled 36 enrolled 0G/55U Lecturer (C. Fitzgibbon) S08/09/10 52 enrolled 42 enrolled Sessional (K. Bolton) 62 enrolled 59 enrolled 1GAUD/86U SOIL3060 L. Evans 2GAUD/15 U 1GAUD/9U 3G-1AUD/10U SOIL3070 G. Parkin 1GAUD/12U 2G-1AUD/11U Sessional (H. Dadfar ) F08 14 enrolled SOIL3200 Sessional (P. Zwart) 9 enrolled K. Dunfield 3GAUD/9U Cancelled SOIL3300 Equate NRS3300 (S. Hilts) 8 enrolled SOIL4090 J. Lauzon (cross-lst SOIL4130) 26 enrolled 19 enrolled 1G/30U SOIL4130 J. Lauzon (cross-lst SOIL4090) 12 enrolled 1GAUD/17U 1G/11U TOX2000 K. Solomon/L. Ritter/ ….. 2GAUD/143U 0G/128U 0G/144U

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TOX6000 K. Solomon/L. Ritter 29G/0U 20G/0U 30G/0U TOX6350 K. Solomon (Cross-lst with 1G/0U ENVB6530/ENVB4550/TOX4550)

6. Undergraduate courses listed are those available to and taken by at least one graduate student during the past three years. Numerous other undergraduate courses in the SES are available to be taken by graduate students but are not listed because there was no enrolment during the past three years. 7. Faculty member(s) responsible for the delivery of each course and cross-listed courses.

4.5 Collateral and Supporting Departments

The proposed Graduate Program will be delivered by the School of Environmental Sciences. However, given the wealth of environmental and biological research conducted at the University of Guelph, and the existence of other graduate programs that directly or indirectly addresses aspects of the environmental sciences and biosciences, there exists a large range of additional courses that are relevant and could be taken for credit by the SES graduate students in both thesis-based and Coursework Master’s degrees. Examples of such courses are listed in Appendix D.

5. OUTCOMES

5.1. Enrolment and graduations 5.1.1 MSc Program Tables 8 and 9 provide numerical data (2003/04-2009/10) for MSc students entering and graduating from the LRS and EVB graduate programs. Tables 8a-c show completions, transfers and withdrawals, respectively, based on cohort data while Tables 9a and b show the same information based on flow-though data for the MSc by thesis and coursework, respectively.

Entry onto the MSc program over the last eight years has fluctuated from 3-15 students for LRS and 13-29 students for EVB. Fluctuation in the number of entering graduate student is generally due to corresponding fluctuations in faculty member research programs as determined by funding and space availability. The generally lower intake of students in LRS compared to EVB reflects a smaller faculty member compliment in that department. The uncharacteristically low intake of students by LRS between 2004/2005 and 2007/2008 reflects several faculty retirements and the time required to develop new research programs by new faculty. As new faculty programs have grown in LRS, enrolments of MSc students increased as indicated by the higher numbers in 2008/2009 and 2009/2010. Since 2004/2005, apart from a peak of 29 students, the number of entering Master’s students in EVB has consistently remained around 20. The lower number of new students for 2010-2011 reflects the fact that January and May 2011 students are not counted in this total.

Over the assessment period, a total of 7 MSc students (6 in EVB, 1 in LRS) out of a total of 212 (3.3%) transferred to the PhD program without completing their MSc degree. In general, student withdrawals are low (0-3 students per year) and are not associated with any particular faculty member or program. Of the 212 students who entered the MSc program in both departments, 15 (7.1%) withdrew.

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In most years, the proportion of students enrolled in the MSc by thesis program in both departments who were female exceeded 50% (Table 9a), falling in the range of 50-60%. This trend appears to be continuing with the 2010-2011 MSc thesis students. The current proportion of female students in the Coursework Master’s program (Table 9b) is 1.0 (n=2) but this has fluctuated since 2008/2009 and it is still too early in this program to adequately elucidate gender trends. The number of Visa students has also fluctuated over the assessment period but is relatively modest, ranging from 0-8.6% within the two departments. Efforts within the former departments and the SES to increase international student representation has been challenging given the high tuition fees paid by these students. However, the SES does offer an extra $3000 to all international students and university-level international scholarships of $2000 are available a competitive basis.

The time to completion for MSc thesis students has fluctuated over the assessment period but has generally experienced a decrease in both departments. Average times to completion in both LRS and EVB between 2003/2004 and 2005/2006 (and 2006/2007 in EVB) exceeded seven semesters. In 20007/2008, the average time to completion dropped below seven semesters. Previous OCGS assessments had expressed concern over the mean time to completion for both departments so the SES is encouraged by the declining trend. However, we recognize that it remains somewhat higher than is ideal (six semesters).

There are several factors that contribute to long completion times. In some cases, students obtain full-time employment before they finish their degree. Indeed, the majority of MSc students enter the workforce rather than continuing to complete a PhD. This situation can delay completion of the degree appreciably as students adjust to full-time employment and writing their thesis “after hours”. While this situation is not ideal, the SES recognizes that students will not be inclined to turn down good offers of employment. In some instances, new parental responsibilities have also delayed completions times. Another key factor in both departments is the relatively high proportion of students who conduct field research which often requires two summers of work in order to obtain adequate data. While some faculty have attempted to address this through changes in field experimentation and sampling, it will undoubtedly continue to present a challenge to further reductions in completion times as faculty members attempt to find the appropriate balance between maintaining reasonable completions times and a high quality of research. The SES does require that all students take Introductory Seminar in which students must develop and present a proposal that will help to focus and guide them in their research planning and we feel that this has helped to decrease times to completion in recent years.

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Table 8a Master's students: New enrolment and completions by year of admission (cohort data; footnotes at the bottom of Table 8c)

Completions 3 Time to Completion 4 In Progress 5

Within Terms After Term

1 2 Total (All 6 Year New 3 % Average Median # % 1,2,3 4,5,6 7,8,9 9 Terms) =< 1 year > 1, =< 2 yrs > 2, =< 3 yrs > 3 years a B c d e F x Y Z g W 2003-04 ENVB 13 1 1 6 1 9 0.7 7.4 7 0 0 LRS 10 0 1 6 1 8 0.8 8.3 7 0 0 2004-05 ENVB 13 0 0 7 2 9 0.7 9.7 8 0 0 LRS 12 0 1 4 1 6 0.5 7.8 7.5 4 0.3 2005-06 ENVB 29 3 1 14 3 21 0.7 7.0 7 5 0.2 LRS 8 0 0 5 0 5 0.6 7.8 7 3 0.4 2006-07 ENVB 20 0 2 9 2 13 0.7 7.9 7.6 5 0.3 LRS 3 0 1 1 0 2 0.7 6.1 6.1 1 0.3 2007-08 ENVB 17 0 1 3 4 0.2 6.7 6.7 12 0.7 LRS 7 0 2 2 2010-11 4 0.6 6.7 6.5 2 0.3 2008-09 ENVB 19 0 0 0 0 NA NA 18 0.95 LRS 15 1 0 2010-11 2011-12 1 0.1 3 3 13 0.9 2009-10 ENVB 19 0 0 0 NA NA 19 1.0 LRS 13 4 2010-11 2011-12 2012-13 4 0.3 4 2.7 9 0.7 2010-11* SES 14 2010-11 2011-12 2012-13 2013-14 Na Na Na Na Na Na Page 72 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 73

TABLE 8b Master's students: New enrolment and transfers by year of admission (cohort data; footnotes at the bottom of Table 8c) Transfers 6 Time to Transfer 4 In Progress 5

Within Terms After Term 9 1 2 Total (All 6 Year New 6 % Average Median # % 1,2,3 4,5,6 7,8,9 Terms) =< 1 year > 1, =< 2 yrs > 2, =< 3 yrs > 3 years a H I j k M xx yy zz g w 2003-04 ENVB 13 Na 1 Na Na 1 0.07 5 5 0 0 LRS 10 Na 1 Na Na 1 0.1 5 5 0 0 2004-05 ENVB 13 1 1 Na Na 2 0.2 3.5 3.5 0 0 LRS 12 Na Na Na Na Na Na Na Na 4 0.3 2005-06 ENVB 29 Na Na Na Na Na Na Na Na 5 0.2 LRS 8 Na Na Na Na Na Na Na Na 3 0.4 2006-07 ENVB 20 Na Na Na 1 0.1 5 5 5 0.3 LRS 3 Na Na Na 2009-10 Na Na Na Na 1 0.3 2007-08 ENVB 17 1 Na Na 1 0.06 3 3 12 0.7 LRS 7 Na Na Na 2010-11 0 Na 0 0 2 0.3 2008-09 ENVB 19 Na Na Na Na Na Na 18 0.95 LRS 15 Na Na 2010-11 2011-12 Na Na Na Na 13 0.8 2009-10 ENVB 19 0 Na Na Na Na 19 1.0 LRS 13 0 2010-11 2011-12 2012-13 Na Na Na Na 9 0.7 2010-11* SES 14 2010-11 2011-12 2012-13 2013-14 Na Na Na Na Na Na

Page 73 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 74

Table 8c Master's students: New enrolment and withdrawals by year of admission (cohort data) Withdrawals3 Time to Withdrawal 4 In Progress5

Within Terms After Term 9 1 2 Total (All 6 Year New 8 % Average Median # % 1,2,3 4,5,6 7,8,9 Terms) =< 1 year > 1, =< 2 yrs > 2, =< 3 yrs > 3 years A N o p q R xxx yyy zzz g w 2003-04 ENVB 13 1 1 1 Na 3 0.2 4 4 0 0 LRS 10 Na 1 Na Na 1 0.1 6 6 0 0 2004-05 ENVB 13 1 Na Na 1 2 0.2 6.65 6.65 0 0 LRS 12 1 Na Na 1 2 0.2 7.8 7.8 4 0.3 2005-06 ENVB 29 2 1 0 0 3 0.1 2.3 2.3 5 0.2 LRS 8 Na Na Na Na Na Na Na Na 3 0.4 2006-07 ENVB 20 1 Na Na Na 1 0.05 2.3 2.3 5 0.3 LRS 3 Na Na Na Na Na Na Na Na 1 0.3 2007-08 ENVB 17 Na Na Na Na NA NA Na 12 0.7 LRS 7 1 Na Na 2010-11 1 0.2 1 1 2 0.3 2008-09 ENVB 19 1 Na 1 0.5 1 1 18 0.95 LRS 15 1 Na 2010-11 2011-12 1 0.6 1 1 13 0.8 2009-10 ENVB 19 Na Na Na Na Na 19 1.0 LRS 13 Na 2010-11 2011-12 2012-13 Na Na Na na 9 0.7 2010-118 SES 14 2010-11 2011-12 2012-13 2013-14 Na Na Na Na Na Na

Page 74 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 75

Tables 8a-c Footnotes 1. Academic year starting in September with three entry points (Fall, Winter, and Summer) 2. Sum of intake for each entry point of a given year 3. All students from that cohort that had either completed (Table 8a), transferred (Table 8b) or withdrew (Table 8c). Total Completions is the number of completions for all the timeframes indicated in the table, or f = b+c+d+e. Completion Rate or % Completion = Total Completion / New, or x = f/a. The overall completion rate is the sum of Completion Rate and Transfer Rate. Total number of Transfers for a cohort is the number of Transfers for all the timeframes indicated in the table, or m = h+i+j+k. Transfer Rate or % Transfer = Total Transfer / New, or xx = m/a. Average and median Time To Withdrawal are calculated from the number of terms from first registration to the term and year of Withdrawal, in years to 1 decimal point, where 3 terms = 1 year. 4. Average and median time to completion (Table 8a), transfer (Table 8b) or withdrawal (Table 8c) of students within the graduate program. 5. All students who were still in program or on approved leave after six terms of entry point 6. Students who are In Progress include those registered in the program and those on approved leave, such as maternity, paternal or illness, etc., including any authorized suspension of studies without loss of privileges. The number of students In Progress are the number of students in the cohort (New) minus Total Completions, Total Transfers and Total Withdrawals, or g = a-f-m-r. If less than 9 terms have elapsed for a cohort, the number of students still In Progress is the number associated with the latest timeframe for which data are available. E.g., if 2 years have elapsed for a cohort, the number of students still In Progress is equal to the number of students in the cohort less the number of Completions, Transfers and Withdrawals for all timeframes up to and including 4-6 terms, or Total Completions, Total Transfers and Total Withdrawals respectively for the cohort. In Progress Rate or % In Progress = In Progress/New, or w = g/a. 7. Percent of students who completed (Table 8a), transferred (Table 8b), withdrew (Table 8c), or are In Progress (all tables) 8. F’10 intake data only

Page 75 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 76

TABLE 9a Master's Students: New Enrolment, Student Complement, Withdrawals, Transfers and Completions by Academic Year (Flow-Through Data; footnotes at the bottom of Table 10b)

Time to Completion

4 5 6 7 8 9 10 Excluding Female Visa Withdrawals Transfers Completions Continuing Elapsed Time 11 1 2 Student Leaves Year New 3 Complement Range Average Average # % # % # # # # Minimum Maximum 2000-01 ENVB 8 41 18 43.90% 2 4.87% 0 0 10 21 10.6 6.0 25.0 10 LRS 13 35 21 60.00% 2 5.71% 0 0 13 23 9.3 6.0 13.0 9.3 2001-02 ENVB 23 46 25 54.34% 3 6.52% 0 0 9 36 8.4 6.0 9.0 8.2 LRS 10 35 19 54.28% 3 8.57% 0 0 9 21 7.8 6.0 10.0 7.7 2002-03 ENVB 16 55 32 58.06% 3 5.45% 0 0 7 34 8.9 5.0 12.0 7.6 LRS 7 30 15 50.00% 3 1.00% 0 0 8 17 8.1 7.0 12.0 8.7 2003-04 ENVB 13 62 36 60.00% 4 6.45% 0 0 15 30 8.2 6.0 11.3 8.1 LRS 10 30 10 33.33% 2 6.66% 0 0 8 22 7.7 7.0 9.0 7.7 2004-05 ENVB 13 59 24 40.67% 4 6.77% 1 0 13 28 8.1 5.6 13.0 8.1 LRS 12 37 15 45.54% 5 13.51% 0 0 5 25 8.6 7.0 10.0 8.8 2005-06 ENVB 29 67 36 53.73% 2 2.98% 1 3 12 44 8.3 2.6 14.0 8.2 LRS 8 34 16 47.85% 5 14.70% 3 0 13 17 8.3 3.0 14.0 8.3 2006-07 ENVB 21 72 38 52.77% 2 2.77% 0 1 11 44 9.1 4.3 24.3 9.1 LRS 3 20 13 65.00% 3 15.00% 1 0 5 14 8.2 6.0 13.0 8.4

Page 76 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 77

2007-08 ENVB 17 71 36 50.70% 3 4.28% 0 0 14 43 8.2 6.0 12.0 7.8 LRS 7 21 15 71.42% 1 4.76% 0 0 6 13 9.6 7.0 18.0 9.6 2008-09 ENVB 19 67 34 50.74% 3 4.47% 0 0 13 52 7.8 3.0 10.0 7.3 LRS 14 28 18 64.28% 0 0% 0 0 3 29 8.0 6.0 9.0 9.0 2009-10 ENVB 16 61 36 59.01% 3 5.08% 1 1 10 8.3 2.9 13.6 8.6 LRS 12 37 16 43.32% 0 0% 0 0 5 8.7 6.0 16.3 9.1 2010-11* SES 16 92 51 55.43 4 0.08 Na Na Na Na Na Na Na Na *F’10 intake data only

Page 77 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 78

Table 9b Coursework Master's Students: New Enrolment, Student Complement, Withdrawals, Transfers and Completions by Academic Year (Flow-Through Data) Time To Completion

4 5 6 7 8 9 10 Excluding Female Visa Withdrawals Transfers Completions Continuing Elapsed Time 11 1 2 Student Leaves Year New 3 Complement Range Average Average # % # % # # # # Minimum Maximum 2000-01 LRS NA 2001-02 LRS NA 2002-03 LRS NA 2003-04 LRS NA 2004-05 LRS NA 2005-06 LRS NA 2006-07 LRS NA 2007-08 LRS NA 2008-09 LRS 1 1 0 0 0 0 0 0 1 0 3 3 3 3 2009-10 LRS 5 5 2 0.4 0 0 0 0 4 3.5 2 3 3.5 2010-1111 2 3 2 1.0 0 0 0 Na 0 Na NaNa Na Na

Page 78 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 79

Table 9 Footnotes 1. Academic year starting in September with three entry points (Fall, Winter, and Summer). 2. Sum of intake for each entry point of a given year 3. All students registered or on approved leave during the academic year 4. Number and percent of Female students in Student Complement 5. Number and percent of Visa students in Student Complement – visa status at 1st registration 6. Number of students who withdrew within that academic year; 7. Number of students who were Transferred or promoted into the doctoral program without receiving a master's degree 8. Number of students who completed all program requirements within that academic year 9. Number of Continuing students is still in the program (registered and had not completed all requirements) or on approved leave at the end of that academic year 10 Average Time To Completion – Elapsed Time – is calculated from the term and year of 1st registration to the term and year when all program requirements are completed. Average Time To Completion – Excluding Leaves – is calculated from the term and year of 1st registration to the term and year when all program requirements are Completed 11 Includes Fall 2010 semester data only

Page 79 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 80

5.1.2 PhD Program Tables 10 and 11 provide numerical data (2003/04-2009/10) for PhD students entering and graduating from the LRS and EVB graduate programs. Tables 10a/b show completions and withdrawals, respectively, based on cohort data while Table 11 shows the same information based on flow-though data.

Entry onto the PhD program over the last eight years has fluctuated from 1-7 students for LRS and 3-8 students for EVB. Fluctuation in the number of entering graduate students is generally due to corresponding fluctuations in faculty member research programs as determined by funding and space availability, and in the limited pool of available candidates. The generally lower intake of students in LRS compared to EVB reflects a smaller faculty member compliment in that department. To a small degree, the fluctuation may also reflect the transfer of students from the MSc program into the PhD program. Over the assessment period, a total of 7 MSc students (6 in EVB, 1 in LRS) out of a total of 212 (3.3%) transferred to the PhD program without completing their MSc degree.

In general, student withdrawals are from the PhD program are low and are not associated with any particular faculty member or program. Of the 105 students who entered the PhD program in both departments since 1998/1999, 7 (6.7%) withdrew. Individual reasons for the withdrawals are varied and have typically included unsatisfactory performance on qualifying exams (students are allowed two attempts), re-directed priorities resulting from family planning, and financial problems.

In most years, the proportion of students enrolled in the PhD program in both departments who were female was below 50% (Table 11), falling in the range of 27-59% across both departments. This trend appears to be continuing with the 2010-2011 PhD students. Although the proportion of female students has fluctuated, there is no apparent trend over time. The proportion of female students in the PhD program is somewhat (10-20%) lower than in the MSc thesis program. Reasons for the lower proportion of females in the PhD program is difficult to surmise but may partly reflect loss of females from the pool of available candidates due to family planning.

The number of international visa students has also fluctuated over the assessment period but is relatively modest, ranging from 0-8.6% within the two departments. The same efforts to increase international student representation described for the MSc program above are being implemented at the PhD level.

Table 10a shows the time to completion for students completing a PhD program after completing a MSc and those that transferred from the MSc to the PhD program. The time to completion for PhD students has fluctuated over the assessment period in but has generally ranged between 10 and 15 semesters. There has been a slight decline in the mean time to completion over the assessment period, with completion times (for those years where all students have graduated) being consistently in the 11-13 semester range for both departments. Previous OCGS assessments expressed concern over the mean time to completion for PhD students in both departments so the SES is encouraged by the declining trend. However, we recognize that it remains somewhat higher than is ideal (nine semesters). Many of the same factors discussed above for MSc students also represent factors that contribute to delayed times to completion for PhD students and the SES has implemented similar strategies to address this situation for PhD students as it has for MSc students.

Page 80 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 81

Table 10a Doctoral students: New Enrolment and completions by year of admission (cohort data; footnotes at the bottom of Table 10b)

Time To

Completions 3 Completion 4 In Progress 5

Within Terms After Term 21 Total Year 1 New 2 1,2,3 4,5,6 7,8,9 10,11,12 13,14,15 16,17,18 19,20,21 (All % 3 Average 4 Median 4 # 5 % 5 Terms) 3 > 1, =< 2 > 2, =< 3 > 3, =< 4 > 4, =< 5 > 5, =< 6 > 6, =< 7 =< 1 year yrs yrs yrs yrs yrs yrs > 7 years a b c d E f G H i j x y z k W 1998-99

ENVB 4 0 1 1 1 1 0 0 0 4 1.0 8.15 8.8 0 0 LRS 4 0 0 0 2 1 1 0 0 4 1.0 12.75 12 0 0 1999-00

ENVB 7 0 0 0 2 1 1 1 0 5 0.71 15.2 15 1 0.14 LRS 5 0 0 1 1 1 0 0 1 4 0.8 12.5 12.5 0 0 2000-01

ENVB 4 0 0 0 2 0 1 0 0 3 0.75 13.66 12 0 0 LRS 1 0 0 0 0 0 0 0 1 1 1.0 28 28 0 0 2001-2002

ENVB 4 0 0 1 0 0 1 0 0 2 0.5 12 12 1 0.25 LRS 1 0 0 0 0 1 0 0 0 1 1.0 14 14 0 0 2002-2003

ENVB 8 0 0 0 4 2 2 0 0 8 1 13.45 12.5 0 0 LRS 1 0 0 0 1 0 0 0 0 1 1 10 10 0 0 2003-04

ENVB 8 0 1 0 2 1 3 0 7 0.88 13.14 15 1 0 LRS 4 0 0 1 0 1 1 0 2010-11 3 0.75 13.53 15` 0 0 2004-05

ENVB 3 0 0 0 1 1 0 2 0.67 12 12 0 0 LRS 4 0 0 0 2 1 0 2010-11 2011-12 3 0.75 11.66 11 1 0.25

Page 81 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 82

2005-06

ENVB 3 0 0 0 0 0 0 0 0 0 3 0 LRS 7 0 0 0 0 3 2010-11 2011-12 2012-13 3 0.43 13.2 13.3 3 0.43 2006-07

ENVB 2 0 0 0 0 0 0 0 0 1 0 LRS 3 0 0 0 0 2010-11 2011-12 2012-13 2013-14 0 0 0 0 3 0 2007-08

ENVB 5 0 0 0 0 0 0 0 5 0 LRS 6 0 0 0 2010-11 2011-12 2012-13 2013-14 2014-15 0 0 0 0 6 0 2008-09

ENVB 3 0 0 0 0 0 0 3 0 LRS 5 0 0 2010-11 2011-12 2012-13 2013-14 2014-15 2015-16 0 0 0 0 5 0 2009-10

ENVB 5 0 0 0 0 0 0 5 0 LRS 1 0 0 2011-12 2012-13 2013-14 2014-15 2015-16 2016-17 0 0 0 0 1 0

Page 82 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 83

Table 10b Doctoral students: New Enrolment and withdrawals by year of admission (cohort data)

Time To

Withdrawals 6 Withdrawal 7 In Progress 5

Within Terms After Term 21 1 2 Total (All 6 7 7 5 5 Year New 1,2,3 4,5,6 7,8,9 10,11,12 13,14,15 16,17,18 19,20,21 6 % Average Median # % Terms) > 1, =< 2 > 2, =< 3 > 3, =< 4 > 4, =< 5 > 5, =< 6 > 6, =< 7 =< 1 year yrs yrs yrs yrs yrs yrs > 7 years a m n o P q R S t u xx yy zz k W 1998-99

ENVB 4 0 0 0 0 0 0 0 0 0 0 0 0 0 0 LRS 4 0 0 0 0 0 0 0 0 0 0 0 0 0 0 1999-00

ENVB 7 0 0 1 0 0 0 0 0 1 0.14 9 9 1 0.14 LRS 5 0 0 0 0 1 0 0 0 1 0.2 9 15 0 0 2000-01

ENVB 4 1 0 0 0 0 0 0 0 1 0.25 2 2 0 0 LRS 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 2001-02

ENVB 4 1 0 0 0 0 0 0 0 1 0.25 1 1 1 0.25 LRS 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 2002-03

ENVB 8 0 0 0 0 0 0 0 0 0 0 0 0 0 0 LRS 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0 2003-04

ENVB 8 0 0 0 0 0 0 0 0 0 0 0 0 0.13 LRS 4 0 0 0 0 1 0 0 2010-11 1 0.25 15 15 0 0 2004-05

ENVB 3 0 0 0 0 0 0 0 0 2 2 1 0 LRS 4 1 0 0 0 0 0 2010-11 2011-12 1 0.25 0 0 0 0.25

Page 83 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 84

2005-06

ENVB 3 0 0 0 0 0 0 0 0 0 3 0 LRS 7 1 0 0 0 0 2010-11 2011-12 2012-13 0 0 0 0 3 4.28 2006-07

ENVB 2 1 0 0 0 1 0.5 1 1 1 0 LRS 3 0 0 0 0 2010-11 2011-12 2012-13 2013-14 0 0 0 0 3 0 2007-08

ENVB 5 0 0 0 0 0 0 0 5 0 LRS 6 0 0 0 2010-11 2011-12 2012-13 2013-14 2014-15 0 0 0 0 6 0 2008-09

ENVB 3 0 0 0 0 0 0 3 0 LRS 5 0 0 2010-11 2011-12 2012-13 2013-14 2014-15 2015-16 0 0 0 0 5 0

2009-10 9 0 0 0 0 0 0 5 0 SES 1 0 0 2011-12 2012-13 2013-14 2014-15 2015-16 2016-17 0 0 0 0 1 0 2010-118 2010- SES 3 11Na 2011-12 2012-13 2013-14 2014-15 2015-16 2016-17 2017-18 Na Na Na Na Na Na Table 10 Footnotes 1. Academic year starting in September with three entry points (Fall, Winter, and Summer) 2. Sum of intake for each entry point of a given year 3. All students from that cohort that had either completed (Table 8a), transferred (Table 8b) or withdrew (Table 8c). Total Completions is the number of completions for all the timeframes indicated in the table, or f = b+c+d+e. Completion Rate or % Completion = Total Completion / New, or x = f/a. The overall completion rate is the sum of Completion Rate and Transfer Rate. Total number of Transfers for a cohort is the number of Transfers for all the timeframes indicated in the table, or m = h+i+j+k. Transfer Rate or % Transfer = Total Transfer / New, or xx = m/a. Average and median Time To Withdrawal are calculated from the number of terms from first registration to the term and year of Withdrawal, in years to 1 decimal point, where 3 terms = 1 year. 4. Average and median time to completion (Table 8a), transfer (Table 8b) or withdrawal (Table 8c) of students within the graduate program. 5. All students who were still in program or on approved leave after six terms of entry point 6. Students who are In Progress include those registered in the program and those on approved leave, such as maternity, paternal or illness, etc., including any authorized suspension of studies without loss of privileges. The number of students In Progress are the number of students in the cohort (New) minus Total Completions, Total Transfers and Total Withdrawals, or g = a-f-m-r. If less than 9 terms have elapsed for a cohort, the number of students still In Progress is the number associated with the latest timeframe for which data are available. E.g., if 2 years have elapsed for a cohort, the number of students still In Progress is equal to the number of students in the cohort less the number of Completions, Transfers and Withdrawals for all timeframes up to and including 4-6 terms, or Total Completions, Total Transfers and Total Withdrawals respectively for the cohort. In Progress Rate or % In Progress = In Progress/New, or w = g/a. 7. Percent of students who completed (Table 8a), transferred (Table 8b), withdrew (Table 8c), or are In Progress (all tables) 8. F’10 intake data only

Page 84 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 85

Table 11 Doctoral Students: New Enrolment, Student Complement, Withdrawals and Completions by Academic Year (Flow-Through Data) Time To Completion9 10

4 5 6 7 8 9 Excluding Female Visa Withdrawals Completions Continuing Elapsed Time 10 1 2 Student Leaves Year New 3 Complement Range Average Average # % # % # # # Minimum Maximum 2000-01

ENVB 4 30 12 0.4 6 0.2 1 0 29 0 0 0 0 LRS 1 21 8 0.38 6 0.28 0 3 18 13.7 12 15 13.7 2001-02

ENVB 4 38 18 0.47 6 0.16 1 5 32 12.7 9 16 12.3 LRS 1 18 5 0.27 5 2.78 0 6 12 13.3 9 18 13.7 2002-03

ENVB 8 37 19 0.51 5 0.13 0 6 31 16.0 11 22 15.5 LRS 1 18 5 0.27 7 0.39 0 5 13 17.1 10 21.6 15.7 2003-04

ENVB 8 40 22 0.55 6 0.15 0 10 30 14.3 10 17 13.8 LRS 4 17 5 0.29 5 0.29 0 1 16 16 16 16 16 2004-05

ENVB 3 37 20 0.54 6 0.16 1 5 31 12.3 5.6 19 12.1 LRS 4 18 8 0.44 5 0.28 0 3 10 12.1 8.3 15 11.6 2005-06

ENVB 3 35 15 0.43 7 0.2 0 11 24 15.6 10.3 22 15.2 LRS 7 25 7 0.28 9 0.36 0 2 23 12 10 14 12 2006-07

ENVB 2 29 15 0.52 7 0.24 0 6 23 15.9 10 24.3 14.7 LRS 3 30 8 0.27 11 0.36 0 4 26 15.3 9 22 17.3 2007-08

ENVB 5 31 18 0.58 5 0.16 0 5 26 15.5 11 17.3 14.5 LRS 6 31 10 0.32 10 0.32 2 3 28 9.7 7 11 9.7

Page 85 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 86

2008-09

ENVB 3 32 19 0.59 7 0.22 0 7 25 15.5 12.3 18 14.9 LRS 5 30 10 0.33 8 0.27 0 3 27 14.3 13 15 14.3 2009-10 SES 6 58 23 .4 12 .39 9 12 46 15.0 6 28 14.9 2010-1111

SES 3 53 Na Na Na Na Na Na Na Na Na Na Na

Table 11 Footnotes 1. Academic year starting in September with three entry points (Fall, Winter, and Summer). 2. Sum of intake for each entry point of a given year 3. All students registered or on approved leave during the academic year 4. Number and percent of Female students in Student Complement 5. Number and percent of Visa students in Student Complement – visa status at 1st registration 6. Number of students who withdrew within that academic year; 7. Number of students who were Transferred or promoted into the doctoral program without receiving a master's degree 8. Number of students who completed all program requirements within that academic year 9. Number of Continuing students is still in the program (registered and had not completed all requirements) or on approved leave at the end of that academic year 10 Average Time To Completion – Elapsed Time – is calculated from the term and year of 1st registration to the term and year when all program requirements are completed. Average Time To Completion – Excluding Leaves – is calculated from the term and year of 1st registration to the term and year when all program requirements are Completed 11 Includes Fall 2010 semester data only

Page 86 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 87

5.2. Employment While some individual faculty members maintain records of student employment history, the SES collectively does not. As such, specific numbers pertaining to the employment history of all students within the former LRS and EVB Departments since 2002 could not be developed. In general, students graduating from the SES find employment in academia, either to continue their graduate education or as faculty members at other institutions, government, industry, consulting, and non-governmnetal organizations. For example, based on the graduation records of four faculty for which post-graduate employment history was available between 2002 and 2010 (total of 53 graduate students), 12 (22.6%) went on to pursue additional graduate education (either as PhD or Post-doctoral students), 4 (7.5%) were hired as tenure-track faculty in academia, 19 (35.8%) are employed in provincial (e.g., Ontario Ministry of Agriculture, Food, and Rural Affairs, Minsitry of the Environment) or federal (e.g., Environment Canada, Health Canada, Candian Food Inspection Agency) government postions, 11 (20.7%) are employed in the consulting industry, and 3 (5.6%) are employed by industry. The majority of students with an MSc, who do not continue in academia, typically find employment in government or consulting.

5.3. Publications Peer-reviewed publication represents an important indicator of the quality of research being accomplished by students in the SES. Appendix E provides a list of publications that include students as an author for the period 2005 to 2010. Over this period, students have been named authors on approximately 400 peer-reviewed journal articles. These papers have appeared in a diverse range of high quality journals within the respective disciplines of the supervising faculty including Nature, Science, and Proceedings of the National Academy of Sciences, among many others). In total, >85% of PhD students and >60% of MSc students have published at least one peer-reviewed paper during the assessment period.

5.4. Projected graduate intake and enrolments Projected enrolments over the next seven years in the SES are presented in Table 12. The SES currently has 157 graduate (MSc, Master’s, and PhD) students enroled on a full-time or part- time basis. The number of students entering a program under part-time status is typically very low (1-2 students per years at the MSc level and 0 at the PhD level) so the totals predominantly reflect projected full-time students. We expect that the number of thesis-based students will remain relatively static (at approximately 160 students) over the next seven years. This situation reflects an anticipated trade-off between the cumulative effect of pending retirements and hiring freezes at the University of Guelph and growth of graduate programs from recently hired faculty. The modest projected decline in the number of MSc thesis students reflects a targeted effort by the SES to attract greater numbers of PhD students. It is anticipated that the number of students enrolling in the new Coursework Master’s and Graduate Diploma programs will increase over the seven-year period as the program gains recognition. Overall, therefore, we are predicting modest growth in the graduate program from approximately 160 to 190 students over the next seven years.

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TABLE 12

PROJECTED INTAKE AND ENROLMENTS Masters (M) And Doctoral (D) Programs

YEAR DEG1 FULL-TIME PART-TIME TOTAL ENROLMENT

Intake Enrolment Intake Enrolment M D T2 GT2 M D M D M D M D

2011 Thesis 25 12 94 61 2 0 4 0 98 61 157

Non- 3 4 0 4 4 161 thesis 2012 Thesis 25 15 94 64 2 0 4 0 98 64 160

Non- 5 0 5 5 165 thesis 2013 Thesis 22 18 91 67 2 0 4 0 95 67 162

Non- 10 12 1 1 13 13 175 thesis 2014 Thesis 20 20 89 69 2 0 4 0 93 69 160

Non- 15 17 1 1 18 18 178 thesis

Page 88 of 132 OCGS APPRAISAL BRIEF - [Environmental Sciences] page 89

PROJECTED INTAKE AND ENROLMENTS Masters (M) And Doctoral (D) Programs

YEAR DEG1 FULL-TIME PART-TIME TOTAL ENROLMENT

Intake Enrolment Intake Enrolment M D T2 GT2 M D M D M D M D

2015 Thesis 18 22 87 71 2 0 4 0 91 71 160

Non- 18 21 1 1 22 22 182 thesis 2016 Thesis 15 25 84 74 2 0 4 0 88 74 160

Non- 20 23 1 1 24 24 184 thesis 2017 Thesis 15 27 82 76 2 0 4 0 86 76 162

Non- 23 26 1 1 26 26 188 thesis

1 Non thesis degree totals include projected enrolments for the Coursework Master’s and Graduate Diploma 2 T = Total students in thesis and non-thesis categories; GT = grand total of projected number of students in the SES graduate program

Page 89 of 132 OCGS APPRAISAL BRIEF - [discipline] page 90

Appendix A Library Assessment

The library assessment will be submitted at a later date.

Page 90 of 132 OCGS APPRAISAL BRIEF - [discipline] page 91

Appendix B

Policies and Guidelines for Graduate Students in The School of Environmental Sciences University of Guelph

Guidelines for Students & Members of Thesis Examination Committees

The MSc Examination

The Candidate must read the Graduate Program Services, Thesis Submission Procedures and make sure they are ready to proceed. Students are strongly advised to attend one or more defenses to become familiar with the process.

The Candidate should download a copy of the School of Environmental Sciences Graduate Exam Information Form and Examination Request Form. This form must be signed by all members of the Advisory Committee indicating that the thesis is ready for defense before any formal actions relating to the defense are initiated. Questions about the process can be directed to the Graduate Secretary or the Associate Director (Graduate Studies).

Preparation for the Defense

An Examination Information Form should be submitted to the Graduate Secretary and the Associate Director (Graduate Studies). After reviewing the nominations for Committee membership and potential dates for the examination on the Examination Information Form, the Associate Director (Graduate Studies) selects the Chair of the Examination Committee who then communicates with the Candidate and his/her Advisor(s) to verify the membership of the Examination Committee. Any concerns are addressed at this time by the Graduate Program Committee and, if required, the Director of the School and/or the Dean of Graduate Studies.

The Candidate and the Advisor(s) complete the Examination Request Form, and ensure that all the members of the Advisory Committee have signed the Examination Request Form to initiate subsequent steps in the defense process. A defense will not proceed without all members of the Advisory Committee signing the Examination Request Form. An individual’s signature indicates that he/she believes the thesis is ready to be sent to the other members of the Examination Committee for review. It is not necessary that all signatures be on the same copy of the form, and signatures can be received by FAX. (The original signed forms are to be provided to the Chair of the Examination Committee at a later date). If delays are experienced, the Candidate and Advisor(s) work together to ensure the availability of all members of the Examination Committee for the revised defense date.

When the Chair of the Examination Committee receives the Examination Request Form(s) with signatures of all members of the Advisory Committee, the Chair examines the thesis to verify its suitability for defense. If it reads well, has appropriate introductory and concluding sections, and requires only minor corrections, then it is ready for defense. If the Chair decides it requires additional editing prior to defense, the thesis may be returned to the Candidate with specific

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instruction as to what is required. However, it is not necessary that the thesis be in its final form at this stage.

When the Chair of the Examination Committee has determined that the thesis is ready for defense, the examination copy of the thesis is prepared.

For both electronic and printed versions of the thesis, the copy of the thesis for examination should include continuous line numbering and be saved as an Adobe PDF file. Students should send electronic and printed (the latter if requested) copies of the thesis to the Examination Committee members (note, however, that a hard copy is easier to work from during the examination and the Candidate should have a hard copy at the defense). At this time, the Examination Request Form(s) is sent to Graduate Program Services, with a copy to the Graduate Secretary. Graduate Program Services requires approximately one week to prepare the paperwork for the defense.

A notice advertising the defense is prepared by the Graduate Secretary and is posted in several prominent locations within the School at least one week in advance of the thesis defense. This notice is distributed to the members of the Examination Committee, and other departments that may be interested in informing members of their department/unit of the defense.

The M.Sc. Candidate is responsible for preparing the room for the defense (e.g., checking the functioning of the computer and projector, drinking water, and any other materials required).

The MSc Thesis Defense The thesis seminar and final oral examination are open to the public. During the thesis defense, the order of activities is: 1. The Chair introduces himself/herself and welcomes everyone to the defense. 2. The Chair introduces all members of the Examination Committee and their contributions. The Chair may also introduce members of the Advisory Committee who are not represented on the Examination Committee. 3. The Chair outlines the procedure to be followed during the examination. 4. The Candidate presents a comprehensive 30-40 min seminar on the thesis research. 5. The Chair of the Examination Committee invites questions from all except the Examination Committee. After these questions, there will be a short break, during which members of the public may leave. 6. Each member of the Examination Committee asks questions of the Candidate for 15-20 minutes in the first round, followed by 5-10 minutes in the second round of questions, including, if desired, the Chair of the Examination Committee. Questions should relate primarily to the thesis but the M.Sc. examination is also considered to be a general examination on related topics so questions related, to but outside of, the thesis are permitted. The Chair of the Examination Committee keeps notes on the performance of the Candidate and can interrupt as needed to ensure the fairness of the examination. Any examiner may interject a related question at the discretion of the Chair of the Examination Committee. 7. Following the completion of the normal rounds of questioning, any final supplemental questions may be asked. 8. The candidate and all visitors are requested to leave while the Examination Committee deliberates the results of the examination. The Chair solicits independent feedback from each member concerning the defense and other relevant matters. The Candidate is

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deemed to have passed the examination if no more than one member of the Examination Committee votes negatively or abstains from voting. Forms requiring signatures are circulated. The Examination Committee will then determine what revisions and corrections, if any, are required and who will be responsible for overseeing their completion by the student. It is common, for example, for the Chair of the Examination Committee to withhold his/her signature from the examination forms pending evidence of satisfactory completion of the requested revisions. 9. The Candidate is recalled and immediately informed of the decision and of recommended and required revisions to the thesis. The Chair of the Examination Committee provides verbal comments to the Candidate concerning his/her thesis and its defense. If the outcome of the defense is “unsatisfactory,” clear indications of the deficiencies must be provided to the Candidate, both verbally and later in writing (within three working days), and the Candidate and Examination Committee discuss the next steps to be taken and potential dates for a second defense. (No more than two final oral examinations of the thesis are allowed). 10. The Advisor of the Candidate and the Chair of the Examination Committee will ensure that all required revisions are completed and the examination forms submitted.

The Qualifying Examination

The Qualifying Examination consists of two parts: written and oral. The normal sequence of events for students to arrange their examination is:

1) The student meets with his/her Advisory Committee. The Committee considers the student’s research ability and potential, as well as the background knowledge in the general and peripheral areas related to the student’s doctoral research. The latter assessment may be done by performance in undergraduate and graduate courses taken by the student. If the Advisory Committee is satisfied with the student’s potential as a Ph.D. Candidate based on his/her background knowledge and research ability, the Committee then recommends that the student proceed to the Qualifying Examination.

2) The Advisory Committee suggests the four subject areas to be examined and the examiners responsible for each of the topics in the Qualifying Examination. There are five members of the Qualifying Examination Committee. According to University regulations, two of these examiners must be University of Guelph graduate faculty who are not serving on the student’s Advisory Committee, while the other two can be from the student’s Advisory Committee. The 5th member chairs the examination. The Examination Chair may elect to assign an area of questioning ahead of the written exam and to ask general questions during the oral exam.

3) The Advisor approaches the Graduate Secretary, about setting up a Qualifying Examination with the following information:

a) Names and contact information of four potential examiners (maximum of two from the Advisory Committee and two other members). The examiners must be faculty members, associate faculty, or special faculty at the University of Guelph. b) Two or 3 tentative dates for the oral examination.

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c) Names of potential Chairs. The Associate Director, (Graduate Studies) will chose the Chair of the Examination and may nominate people other than those suggested to chair the examination. This information will be forwarded to the Associate Director (Graduate Studies). This information is submitted on the Examination Information Form.

4) A Chair for the Examination is appointed by the Associate Director (Graduate Studies). The student will be notified once a chair has been chosen. Student should contact the Chair of the Qualifying Examination to get approval on the suggested Examination Committee before proceeding to the next step.

5) The student contacts each of the examiners to obtain guidance regarding subject areas and study material for the examination. After consultation with all members of the Examination Committee, a date/time is confirmed for the oral examination and a room is booked by the student. The date/time information should be provided to the Graduate Secretary who will post the announcement at a suitable time before the examination. 6) Two weeks before the scheduled written examination date, the Chair of the Examination Committee contacts and solicits questions from each of the other examiners for the written examination. The written examination is usually completed about 1 to 2 weeks before the scheduled oral examination. The written examination may be completed over the course of one to two days and is administered by the Chair of the Examination Committee or a designate. The responses to the written questions may or may not serve as the basis for questioning in the oral examination.

7) The written examination will have the following general format:

a) The Chair of the Qualifying Examination will solicit two question(s) (possibly having several sub-questions) in writing from each of the four other examiners ≥ 2 weeks before the scheduled oral examination. b) The Chair will select one question from each examiner to be presented to the student for written answers. Normally, the student will be given a 2-hour in-class time period to answer the question(s) from each examiner (i.e., a total of 8 h for all questions). The form of the written examination will be determined by the individual examiners. The Chair will examine the questions to minimize any overlap and consult with the examiners if necessary to ensure that the questions can be answered within this time frame. Each examiner will inform the Chair if his/her portion of the examination should be open or closed book and this should be noted on the question. For open book exams, the Chair, in consultation with the examiner, will communicate to the student what books or references can be used in the examination. In closed-book exams, no texts, notes, or internet access is allowed. In both closed and open book exams, additional aids or tools (such as calculators, specific references, and laptop computers) may also be granted. Prior to the examination, the student may discuss with individual examiners the format to be followed and the tools allowed, and the results of the discussion shall be conveyed by the examiner and the student to the Chair. The Chair and the examiner will have the final say on the ground rules for that examiner’s question on the written examination. Once established, the student shall follow the rules set forth by the Chair. The examination is held over 1 - 4 days at the choice of the student. For example, one question is provided in the morning and one in the afternoon each day over two days. Except for the format and duration of the examination, other aspects of the examination are at the discretion of the Chair to

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accommodate special examination arrangements at the request of the student and/or individual examiner(s). c) After the examination, each examiner will receive the student's answers to all the questions and will then mark and/or evaluate his or her question(s). At least five working days prior to convening the oral examination, each examiner will inform the Chair if the student's answers to his/her questions are satisfactory. At this time, the Chair shall pass the decision of the examiners on to the student and the student may seek feedback from the examiner. d) If the answers to written questions from two or more examiners receive an unsatisfactory assessment, the student will be advised but not required to repeat the written assignment for these examiners. In this case, the oral examination will be postponed and the student’s graduate committee will decide on the appropriate course of action.

8) The oral examination will be held ≥2 weeks after the written examination is completed. Prior to the oral examination, the Advisor(s) will provide the Chair with a letter attesting to the student’s research ability and potential. This letter should include the views of the student’s Advisory Committee. This letter forms part of the assessment by the Examination Committee at the end of the oral examination. The oral examination will have the following general format:

a) The Chair first invites the student to give a brief overview (5-10 min.) of his/her background, education and/or relevant experiences. b) The Chair asks each member of the Examination Committee to pose questions to the student. The sequence of questioning by the examiners will be decided by the Chair. c) There are normally two rounds (ca. 20 and 10 min, respectively, from each examiner) of questioning by the Examination Committee. Additional questions may be posed after these two rounds at the discretion of the Chair. When the questioning is completed, the student is asked to withdraw from the room to allow for private deliberations by the Examination Committee. The student is deemed to have passed the Qualifying Examination if not more than one of the 5 examiners votes negatively. An abstention is regarded as a negative vote. d) After the deliberations, the Chair invites the student back to the room and conveys the findings of the Examination Committee to the student.

In the event of a disagreement between the student and the examiners as to how well a student has done in the Qualifying Examination, the matter will be referred to Graduate Program Services. Resolution of such disagreement may involve consultation with experts outside of the School at the discretion of the Graduate Program Services.

The PhD Examination

The Candidate must read the Graduate Program Services, Thesis Submission Procedures and make sure they are ready to proceed.

The Candidate should download a copy of the Examination Request Form. This form must be signed by all members of the Advisory Committee indicating that the thesis is ready for defense before any formal actions relating to the defense are initiated. Questions about the process can be directed to the Graduate Secretary or the Associate Director (Graduate Studies).

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Preparation for the Defense

An Examination Information Form should be submitted to the Graduate Secretary and the Associate Director (Graduate Studies). After reviewing the nominations for the Examination Committee and the External Examiner, the Associate Director (Graduate Studies) will contact the External to ensure that they are available and free of conflict of interest. The Associate Director (Graduate Studies) will then appoint a Chair of the Examination Committee who will then communicate with the Candidate and his/her Advisor(s) to verify the membership of the Examination Committee. Any concerns are addressed at this time by the Associate Director (Graduate Studies) and, if required, the chair of the department and/or the Dean of Graduate Studies. At this point the Chair of the Examination Committee formally contacts the external examiner to invite them to serve and provides them with:

 A cover letter explaining details concerning the report the External Examiner is expected to prepare, expenses, hotel and travel arrangements, and time lines if these have been determined  The Guidelines for the report of External Examiner for the Ph.D. Thesis,  A Statement of Taxable Status, and  The External Examiner Expense Form

The Candidate and Advisor(s) then complete the Examination Request Form, and ensure that all the members of the Advisory Committee have signed the Examination Request Form to initiate subsequent steps in the process. An individual’s signature indicates that he/she believes the thesis is ready to be sent to the other members of the Examination Committee for review. It is not necessary that all signatures be on the same copy of the form, and signatures can be received by FAX (The original signed forms are to be provided to the Chair of the Examination Committee at a later date). If delays are experienced, the Candidate and Advisor(s) work together to ensure the availability of all members of the Examination Committee for the revised defense date.

When the Chair of the Examination Committee receives the Examination Request Form(s) with signatures of all members of the Advisory Committee, the Chair examines the thesis to verify its suitability for defense. If it reads well, has appropriate introductory and concluding sections, and requires only minor corrections, then it is ready for defense. If the Chair decides it requires additional, minor editing prior to defense, the thesis may be returned to the Candidate with specific instruction as to what is required. However, it is not necessary that the thesis be in its final form at this stage.

The approved thesis is sent to the External Examiner and the other members of the Examination Committee at least four weeks prior to the date of the defense. The examination copy of the thesis should be printed with continuous line numbers from an Adobe PDF version of the thesis and the PDF and (if requested but the Examination Committee) hard copies as well. Note, a hard copy is easier to work from during the examination and the Candidate should have a hard copy at the defense. At this time, the Examination Request Form(s) is sent to Graduate Program Services, with a copy to the Graduate Secretary.

One week prior to the defense, the report of the External Examiner will be sent to the Chair of the Examination who will share this with the Candidate and the Advisor.

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A notice advertising the defense is prepared by the Graduate Secretary and is posted in several prominent locations within the School one week in advance of the thesis defense. This notice is distributed to all members of the Examination Committee, the School, and other departments that may be interested in informing members of their department/unit of the defense.

The PhD Thesis Defense The thesis seminar and final oral examination are open to the public. During the thesis defense, the order of activities is: 1. The Chair introduces himself/herself and welcomes everyone to the defense. 2. The Chair introduces all members of the Examination Committee and their contributions and thanks the external for their contribution to the examination of the thesis. 3. The Chair outlines the procedure of the examination as outlined below. 4. The Candidate presents a comprehensive 40-50 minute seminar on the thesis research. 5. The Chair of the Examination Committee invites questions from all except the Examination Committee. After these questions, there will be short break, during which members of the public may leave. 6. Each member of the Examination Committee asks questions of the Candidate for 20 minutes in a first round, followed additional questioning for 5-10 minutes in a second round. Both rounds of questioning may include questions from the Chair of the Examination Committee. Questions should relate primarily to the thesis research. The Chair of the Examination Committee keeps notes on the performance of the Candidate and can interrupt as needed to ensure the fairness of the examination. Any examiner may interject a related question at the discretion of the Chair of the Examination Committee. 7. Upon completion of the questioning, the Candidate and all visitors are requested to leave while the Examination Committee deliberates the results of the examination. 8. The candidate and all visitors are requested to leave while the Examination Committee deliberates the results of the examination. The Chair solicits independent feedback from each member concerning the defense and other relevant matters. The Candidate is deemed to have passed the examination if no more than one member of the Examination Committee votes negatively or abstains from voting. Forms requiring signatures are circulated. The Examination Committee will then determine what revisions and corrections, if any, are required and who will be responsible for overseeing their completion by the student. It is common, for example, for the Chair of the Examination Committee to withhold his/her signature from the examination forms pending evidence of satisfactory completion of the requested revisions. 9. The Candidate is recalled and immediately informed of the decision and of recommended and required revisions to the thesis. The Chair of the Examination Committee provides verbal comments to the Candidate concerning his/her thesis and its defense. If the outcome of the defense is “unsatisfactory,” clear indications of the deficiencies must be provided to the Candidate, both verbally and later in writing (within three working days), and the Candidate and Examination Committee discuss the next steps to be taken and potential dates for a second defense. (No more than two final oral examinations of the thesis are allowed). 10. The Advisor of the Candidate and the Chair of the Examination Committee will ensure that all required revisions are completed and the examination forms submitted.

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Appendix C

Current and proposed graduate courses offered by the School of Environmental Sciences

Course No. Existing Course name and Description Sem Offered

Seminar & Topics Courses

ENVB*6060 Topics in Phytopathology: Current topics and emerging issues in W phytopathology and plant health will be examined through presentations, discussions and group projects. Emphasis will be placed on ecology, population biology and genetics of plant pathogens and other microorganisms, and their application to current practices in plant health. ENVB*6340 Colloquium in Insect Systematics:. Weekly discussions and W seminars dealing with current topics in systematic entomology. ENVB*6451 Topics in Environmental Biology: This course provides graduate F,W,S students, either individually or in groups, with the opportunity to pursue topics in the major areas of departmental specialization such as plant protection, entomology, and environmental management. This course may be offered in any of lecture, reading/seminar, or individual project formats. ENVB*6710 Seminar: This course provides information and training in scientific F,W presentations. Students will prepare a written essay based on their research and make an oral presentation of their proposed studies. Students are expected to take this course in the second or third semester of their study. LRS*6241 Special Topics in Atmospheric Science: The content is F,U determined by the interests of the students and the availability of instructors. Topics may include aspects of statistics for climatology, animal biometeorology, air pollution meteorology, and hydrometeorology. LRS*6581 Special Topics in Soil Science: Issues that are relevant to the U current research of faculty or visiting faculty. Generally presented as a combination of lectures, student seminars and written projects. LRS*6730 Special Topics in Environmental Earth Science: A study of U principles and analyses of local environmental problems involving the application of geological and soil information of land use applications and possible hazardous conditions. LRS*6881 Special Topics in Land Resources Management: Issues that are U relevant to the current research of faculty or visiting faculty. Generally presented as a combination of lectures, student seminars and written projects. LRS*6500 Land Resource Science Research Project: A concise, critical U review of an area of study related to the field chosen by the student including analyses and interpretation of relevant data. The project will be written in the form of a scientific paper and presented to the department as a seminar. Restriction(s): Available only to students registered in LRS MSc by coursework.

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Course No. Existing Course name and Description Sem Offered LRS*6900 Research Issues I: Principles and philosophy of scientific research F including the development of superior communication skills.

Subject Area Courses

ENVB*6040 Molecular Basis of Plant-Microbe Interactions: A lecture and F seminar course on recent advances in the study of plant-microbe interactions. Topics included are the biochemical, physiological and genetic aspects of plant defenses and the interaction of plants with pathogenic and mutualistic bacteria, fungi and viruses. Offered in conjunction with PBIO*4000. Extra work is required of graduate students. Restriction(s): Credit may be obtained for only one of ENVB*6040 or PBIO*4000 ENVB*6180 Physiology and Biochemistry of Herbicides: Chemical and W biological fate of herbicides in soil. Physical, morphological and physiological factors influencing herbicidal selectivity and modes of action. (Offered in alternate years.) ENVB*6190 Environmental Microbial Technology: Current topics in selected W areas of environmental microbial technology. An emphasis will be placed on the physiology and genetics of microorganisms useful in environmental biotechnology. The course involves extensive use of current journal articles. (Offered in alternate odd years.) Restriction(s): Undergraduate degree in microbiology or related discipline. ENVB*6370 Physiology of Insects: Students will be assigned a library exercise F and will select a laboratory project in their own area of interest. Emphasis will be placed on techniques and familiarity with current literature. ENVB*6520 Pollination Biology: Pollination biology is discussed from both F entomological and botanical viewpoints, stressing fundamental and applied aspects. (Offered in the Fall semester or by arrangement with the professor.) ENVB*6530 Toxicological Risk Characterization: A biologically based W advanced course that will give students working knowledge of current procedures and techniques for toxicological risk characterization. The course material will cover the topics: problem definition, concentration-response characterization, exposure characterization, and risk assessment and risk-management decision making. Department of Environmental Biology Restriction(s): Credit may be obtained for only one of TOX*6530, ENVB*6530, ENVB*4550 and TOX*4550 ENVB*6540 Integrated Pest Management – Insects: Concepts associated W with integrated pest management of insect pests of various plant hosts will be introduced to students in an interactive lecture and laboratory format. Experiential learning and skill development, associated with economic entomology, will also be emphasized. (Offered in alternate even years.) Restriction(s): Credit may be obtained for only one of ENVB*6540 and ENVB*4100

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Course No. Existing Course name and Description Sem Offered ENVB*6550 Bioactivity and Metabolism of Pesticides: The basis of pesticide W bioactivity will be examined, with emphasis on mode of action, structure-activity relationships and analytical methods. Students will participate in seminars and prepare a research paper and/or conduct a laboratory research project in consultation with the instructor(s). Students in this course are expected to attend the lectures for ENVB*4240. ENVB*6560 Forest Ecosystem Dynamics: An exploration of energy flow and F distribution in forest ecosystems. Both components will be examined in the context of biomass and productivity, perturbations and resilience. Some aspects of modelling will be covered. ENVB*6620 Management and Biology of the Honey Bee: An in-depth F treatment of advanced topics related to honey bees, including management techniques such as wintering bees, queen rearing and instrumental insemination, comb-honey production, genetics and breeding of honey bees, caste determination, and social behaviour of honey bees. Discussion sections will focus on recent research. LRS*6000 Physical Environment of Crops and Forests: Recent literature F on temperature, humidity, radiation, wind, gases and particles in crop and forest environments; evapotranspiration and photosynthesis of plant communities; modification of microclimates; applied micrometeorology. Offered in even-numbered years LRS*6040 LRS*6040 Micrometeorology: Exchanges of mass, momentum W and energy between the surface and the atmosphere will be studied in the context of larger-scale meteorology. Diffusion and turbulence in and above plant canopies will be examined from theoretical and practical perspectives. Topics include time-series analysis, micrometeorological measurement theory, and basic principles of atmospheric science. Offered in even-numbered years. LRS*6060 Meteorological Instrumentation: Theoretical and practical W aspects of electronic circuits, sensors, and equipment used in meteorological research. LRS*6250 Soil Genesis and Classification: A discussion of world soil F regions for students not specializing in soil genesis. LRS*6280 Soil Physics: The soil as a physical system with special regard to W soil water movement and the diffusion and dispersion of chemical substances. Numerical techniques and computer solutions will be developed. LRS*6300 Applied Soil Physics: The application of soil physical principles to F practical problems concerning soil physical quality, erosion, land reclamation and industrial-waste disposal on land Prerequisite(s): SOIL*3070. LRS*6320 Non-equilibrium Thermodynamics of Porous Media: Transport W processes in porous media such as soils, clays, and membranes are dealt with in the framework of non-equilibrium thermodynamics with emphasis on the coupling between water, solutes, heat and electric charge transport. Offered in even-numbered years.

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Course No. Existing Course name and Description Sem Offered LRS*6340 Soil Organic Matter and Biochemistry: (1) Soil organic matter F characterization, (2) dynamics of soil organic matter, (0.5) nutrient cycling. Offered in odd-numbered years. LRS*6360 Soil and Water Chemistry: Thermodynamics of soil solutions; F solution-solid phase equilibria; reaction kinetics; computer modelling of solute-mineral interactions. LRS*6380 Advanced Soil Chemistry: The mathematical development of W solute speciation models for aqueous solutions, surface complexation models for inorganic soil constituents and discrete and continuous functional group models for humic materials. LRS*6400 Soil Nitrogen Fertility and Crop Production: Emphasis will be W placed on soil N transformations and processes, and N sources for crops; field experimentation methods; environmental issues. LRS*6420 Soil Productivity: Soil physical, chemical and biological F characteristics as they influence crop growth with emphasis on processes and mechanisms. LRS*6440 Field Sampling Strategies and Geostatistics: Concepts and W practical aspects of collecting, synthesizing and interpreting data from spatially and temporally variable and/or correlated fields. Hands-on experience in describing spatial structure of large data sets (supplied by student or instructor) using available software. Offered in even-numbered years. LRS*6700 Glacial Sedimentary Environments: Students will learn about the U processes and deposits of glacial environments as well as the use of sedimentary records to reconstruct past glacial environments. Case studies from modern to ancient glacial sedimentary environments will be used. Field trip included. LRS*6710 Advanced Sedimentology: Topics covered through case studies F of sedimentary deposits and environments include facies analysis, large scale controls, and novel techniques in sedimentology. Topics may also include specific sedimentary environments or specific sedimentary deposits such as turbidites, cross-bedded strata or seismites depending on student interest. LRS*6760 Advanced Remote Sensing: Critical review of the latest research W papers on the use of remotely sensed data for temporal monitoring of the biosphere. Offered in odd-numbered years.

Proposed Courses

ENVS 6XXX Advanced Topics in Environmental Science: The Advanced F Topics course will use a case-study approach, presented as five two week modules that draw from current and/or historical issues in the environmental sciences (e.g., environmental economics, toxicology, land and/or water resources, ecological systems, climate change, etc.) to develop an in-depth understanding of the science underlying the issues, how the issue was managed, and the effectiveness of associated policies, emphasizing the relationship between the science policy.

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Course No. Existing Course name and Description Sem Offered ENVS 6XXX Seminar in Environmental Science: The Seminar course will W provide an interactive forum for students to participate in an advanced discussion on current environmental issues and problems. Using a combination of oral presentations by students and guest lecturers, written assignments, and class projects, students will be given the opportunity to discuss and debate current issues in environmental science. ENVS 6XXX Geology & Geomorphology of Ontario Landscapes: A two- S week course covering concepts and techniques related to the geology and geomorphology of the southern Ontario landscape. Focus will be given to the characterization and interpretation of geological formations and their influence on soil and water processes at the landscape level ENVS 6XXX Classification and Assessment of Aquatic Systems: A two- S week course covering concepts and techniques related to the physiographical, hydrological, and biological characterization of various water bodies. Focus will be on southern Ontario water bodies and will involve periodic excursions to regional water bodies in southern Ontario for the purpose of demonstrating theoretical principles, sampling techniques, and collecting samples for in-lab assessment and metric determination. ENVS 6XXX Survey and Interpretation of Soils: A two-week course covering S concepts and techniques related to the characterization of soil in the landscape. Focus will be given to soilscapes encountered in southern Ontario, and involves a week-long excursion to examine the distribution of soils in this region. ENVS 6XXX Ecological Processes in Forest Systems: A two-week course S covering concepts and techniques related to the ecological characterization of forests. Focus will be on southern Ontario forests and will involve periodic excursions to locations in southern and mid-central Ontario for the purpose of demonstrating theoretical principles, sampling techniques, in-field measurements, and collecting samples for in-lab assessment and metric determination.

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Appendix D

Graduate courses offered by other departments which are available to students on the SES

Course No. Existing Course name and Description Sem Offered GEOG*6281 Environmental Management and Governance: Analysis, F evaluation and management of environmental resources. Emphasis is on biophysical and socio-economic concepts and methods which offer a more comprehensive and integrative basis for environmental decisions. GEOG*6340 Human-Environment Relations: A critical review of philosophies, W concepts and analytical methods for analysis and management of systems involving the interaction of environmental processes and human spatial activity. GEOG*6550 Environmental Modelling W: This course aims to provide W students with an understanding of the processes and techniques involved in environmental modeling practice and will focus on the power and limitations of existing models. GEOG*6330 Biotic Processes and Biophysical Systems: Investigation of U biotic processes influencing the composition, structure and distribution of plant and animal communities and of approaches to biophysical systems analysis, focusing on environmental system interaction at the landscape scale. GEOG*6610 Global Hydrology: An examination of global environmental F hydrology including precipitation, evaporation, subsurface water and runoff. Physical processes, measurement, analytical techniques and modelling strategies will be considered in the context of global change. IBIO*6000 Advances in Ecology and Behaviour: This is a modular course in U which several faculty lecture and/or lead discussion groups in tutorials about advances in their broad areas, or related areas, of ecology and behaviour. Topics may include animal communication, optimal foraging, life-history evolution, mating systems, population dynamics, niche theory and food-web dynamics. The course includes lectures and seminars in which the students participate. Offered annually. LARC*6430 Landscape Resource Analysis: Integrated field and classroom F instruction introduces the student to inventory and analysis of biological, physical, social and cultural elements of the landscape. Projects will incorporate principles of landscape ecology and landscape planning. Field study will require some travel at student's expense. LARC*6440 Environmental Design: This course integrates field and classroom F study to apply landscape ecology to current landscape problems, including analysis of regional landscapes, restoration of degraded landscapes, and application of aesthetic and ecological principles across scales in site to regional settings. Case studies component will require some travel at students' expense.

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Course No. Existing Course name and Description Sem Offered LARC*6470 Integrative Environmental Planning: Landscape planning W emphasizing the integration and interrelationships between biophysical and cultural resources, with application at a regional landscape planning scale. This course typically incorporates community-outreach projects and develops student facilitation abilities. MCB*6310 Advanced Topics in Developmental and Cellular Biology: A U study of selected topics in contemporary developmental and cellular biology. Students will review recent advances in these disciplines at the molecular and cellular level, in biological systems ranging from simple eukaryotes to plants and vertebrates. MCB*6320 Advanced Topics in Microbiology: A study of selected topics in U contemporary microbiology. Students will review recent advances in microbial cell structure, physiology, interactions, gene expression and virulence. MCB*6350 Advanced Topics in Plant Biology: A study of selected U contemporary topics in biochemistry and molecular biology. Proposed course descriptions are considered by the Department of Molecular and Cellular Biology on an ad hoc basis, and the course will be offered according to demand. MCB*6360 Advanced Topics in Biochemistry and Molecular Biology: A U study of selected contemporary topics in biochemistry and molecular biology. Proposed course descriptions are considered by the Department of Molecular and Cellular Biology on an ad hoc basis, and the course will be offered according to demand. PLNT*6050 Principles and Application of Plant Tissue Culture: The course F involves lecture and discussions of fundamental and applied aspects of plant tissue culture. Topics will include the role of tissue culture in understanding plant development, physiology and genetics, and its commercial applications in horticulture and forestry. External Course Code(s): Offered in odd years. PLNT*6080 Plant Disease Epidemiology and Management: Epidemiology F and management of plant diseases caused by fungi, viruses, and bacteria. (Offered in alternate years.) PLNT*6170 Statistics in Plant Agriculture: The application of statistical W techniques to research in plant agriculture. SAS will be the software used to perform data analysis. Emphasis will be placed on statistical principles, the design of experiments, the testing of hypotheses, and communication of findings to other scientists. POLS*6390 Environmental Politics and Policy: This course analyses U environmental actors, movements, institutions, processes and policies across national, sub-national regional and/or global levels of governance utilizing a range of environmental perspectives and theories. Depending on the instructor(s), different case studies of critical and contemporary environmental policy issues will be explored. RPD*6220 Planning and Development Policy Analysis: Planning and U development policy has experienced a significant evolution. This

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Course No. Existing Course name and Description Sem Offered course examines the history of policy, and the theory, methods and processes of policy development and governance in planning and management of environment and resources. RPD*6320 Water Resource Management: The course provides an U assessment of the processes and principles which underlie comprehensive water resource planning and integrated basin management. It also undertakes to evaluate current practice in the context of integrated planning. There is extensive use of Canadian and international practice. RPD*6310 Environmental Impact Assessment: This course deals with the U role of environmental impact assessments and statements in the planning, development and operation of resource projects. Topics discussed include the philosophical and institutional basis for environmental impact assessments, methods used and the effects of such assessments on resource development projects. STAT*6950 Statistical Methods for the Life Sciences: Analysis of variance, F completely randomized, randomized complete block and latin square designs; planned and unplanned treatment comparisons; random and fixed effects; factorial treatment arrangements; simple and multiple linear regression; analysis of covariance with emphasis on the life sciences. STAT*6950 and STAT*6960 are intended for graduate students of other departments and may not normally be taken for credit by mathematics and statistics graduate students. STAT*6960 Design of Experiments and Data Analysis for the Life Sciences: W Principles of design; randomized complete block; Latin square and extensions the split plot and extension; incomplete block designs; confounding and fractional replication of factorial arrangements; response surfaces the analysis of series of experiments; the general linear model; multiple regression and data analytic techniques. STAT*6950 and STAT*6960 are intended for graduate students of other departments and may not normally be taken for credit by mathematics and statistics graduate students. TOX*6000 Advanced Principles of Toxicology: An intensive course in the S principles of modern aspects of toxicology, taught in a lecture/case study format. TOX*6200 Advanced Topics in Toxicology: Advanced topics in toxicology W will include oral presentations by students, faculty members, and guest lecturers. The emphasis will be on advanced concepts and techniques in toxicology research with particular relevance to mechanistic, molecular and interpretive toxicology. TOX*6590 Biochemical Toxicology: The molecular mechanisms of action of F carcinogens and other toxic compounds. Enzymes of biotransformation, including a detailed study of cytochrome P-450. Interactions of reactive species with DNA and other macromolecules. (Credit may be obtained for only one of TOX*4590 and 9406590.) Department of Chemistry and Biochemistry

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Appendix E

Peer-reviewed publications involving students in the Departments of Land Resource Science and Environmental Biology (2005-2010)

The papers are listed by current Category 1 Faculty Advisors. In some cases, more than one faculty member is an author but each paper is listed only once (by primary advisor). Student names are indicated in bold.

Anand

Silva, L.R., Anand, M. and Leithead, M. (2010) Recent widespread tree growth decline despite increasing atmospheric CO2 PLoSONE 5(7): e11543 doi:10.1371/journal.pone.0011543 Caplat, P., Anand, M. and Bauch, C. (2010) Modelling invasibility in endogenously oscillating tree populations: timing of invasion matters. Biological Invasions 12: 219-231 2009 Caplat, P. and Anand, M., (2009) Effects of disturbance frequency, species traits and resprouting on directional succession in an individual-based model of forest dynamics. Journal of Ecology 97:1028-1036 Silva, L. Anand, M., Oliveria, J, Pillar, V. (2009) Past century climate and atmospheric changes in CO2 Araucaria angustifolia (Bertol.) Kuntze water use and growth rates: implications for forest expansion. Global Change Biology 15(10):2397-2417 Leithead, M., Anand, M. and Deeth, L. (2009) A synthetic approach for analyzing tropical tree spatial patterns through time. Community Ecology 10:45-52 2008 Caplat, P., Anand, M. and Bauch, C. (2008) Interactions between climate-change, competition, dispersal and disturbances in a tree migration model. Theoretical Ecology 1(4):209-220. 2007 Caplat, P., Anand, M. and Bauch, C. (2007) Symmetric competition causes population oscillations in an individual-based model of forest dynamics. Ecological Modelling 211:334-341. Rai, V., Anand, M. and Upadhyay, K. (2007) Trophic structure and dynamical complexity in simple ecological models. Ecological Complexity 4:212-222. Dale, M.B., Anand, M. and Desrochers, R.E. (2007) Measuring information-based complexity across scales using cluster analysis. Ecological Informatics 2:212-222. Pagnutti, C., Azzouz, M. and Anand, M. (2007) Propagation of local interactions create global gap structure and dynamics in a tropical rainforest. Journal of Theoretical Biology 247:168-181. Zhang, Y., Ma, K.M., Anand, M. & Fu, B. (2006) Do generalized scaling laws exist for species abundance distribution in mountains? Oikos 115:81-88. Rayfield, B., Anand, M. & Laurence, S. (2005) Assessing simple versus complex restoration strategies for industrially disturbed forests. Restoration Ecology 13:638-649 Desrochers, R.E. & Anand, M. (2005) Quantifying the components of biocomplexity along ecological perturbation gradients. Biodiversity and Conservation 14:3437-3455 Tucker, B. C. & Anand, M. (2005) On the use of stationary versus hidden Markov models to detect simple versus complex ecological dynamics. Ecological Modelling 185:177-193 Anand, M., Laurence, S. & Rayfield, B. (2005) Diversity relationships among taxonomic groups in disturbed and restored forests. Conservation Biology 19:955-962. Pagnutti, C., Anand, M. & Azzouz, M. (2005) Lattice geometry, gap-formation and scale invariance in forests. Journal of Theoretical Biology 236:79-87

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Arnaud

Weaver, L. K. and Arnaud, E. 2010. Polyphase glacigenic deformation in the Waterloo Moraine, Kitchener, Ontario, Canada. Sedimentary Geology, in press.

Blodau

Xing, Y., Bubier, J., Moore, T.R.,Murphy, M.,Basiliko, N., Wendels, S., Blodau, C. (2010) The fate of 15N-nitrate in a northern peatland impacted by long term experimental nitrogen, phosphorus and potassium fertilization, Biogeochemistry, in press. Deppe, M., McKnight, D., Blodau, C. (2010): Effects of shott-term dlying and irrigation on electron flow in mesocosms of a northern bog and an alpine fen, Environmental Science and Technology, 44( I), 80-86. Deppe, M., Knorr, K.H., McKnight, D., Blodall, C. (2010): Effects of short-term drying and irrigation on CO2 and CH4 production and emission from mesocosms of a northern bog and alpine fen, Biogeochemistry. DOl 10.1 007/s I 0533-0 I 0-9406-9. Goldberg, S. D., Knorr, K.-H., Blodau, c., Lischeid, G., Gebauer, G. (2010): Impact of experimental dYlying and rewetting on N,O and NO turnover and emissions from a temperate acidic fen, Global Change Biology, 16,220-233 (2010) Knorr, K.H., Lischeid, G., Blodau, C. (2009): Dynamics of redox processes in a minerotrophic fen exposed to a water table manipulation, Geoderma 153, 379-392. Knorr, K.-H. and Blodau C. (2009): Impact of experimental drought and rewetting on redox transformations and methanogenesis in mesocosms of a northern fen soil. Soil Biology and Biochemistry, 41,1187-1198. Blodau, C. Baner, M., Regenspurg, S. and Macalady, D. (2009): Electron accepting capacities of dissolved organic matter as detelmined by reaction with metallic zinc. Chemical Geology, 260, 186- 195. Bauer, M. and Blodau C. (2009): Experimental colloid formation in aqueous solutions rich in dissolved organic matter, ferric iron, and As. Geochimica et Cosmochimica Acta, 73, 529- 543. Rempfer, J., Livingstone, D., Forster, Blodau, C. (2009): Response of hypolimnetic oxygen concentrations in deep Swiss prealpine lakes to interannual variations in winter climate, Ver. Internat. Verein. Limnol. 30(5): 717-721. Knorr, K.H., Glaser, B., and Blodau, C. (2008). Impact of experimental drought on 13C isotopic composition of dissolved carbon and pathways of methanogenesis in a fen soil. Biogeosciences 5,1457-1473. Goldhammer, T., Einsiedl, F., and Blodau, C. (2008): In situ determination of sulfate turnover in peatlands during a water table fluctuation: application of downscaled push-pull tracer technique. Journal of Plant Nutrition and Soil Science 171, 740-750. Blodau, C., Rees, R., Flessa H., Rodionov, A., Guggenberger, G., Knorr, K.-H., Shibistova, 0., Zrazhevskaya, G., Mikheeva, N., Kasansky, O. A (2008): A snapshot of CO, and CH4 evolution in a thermokarst pond near Igarka, nOlihern Siberia. Journal of Geophysical Research- Biogeosciences 113, G03023, doi: I 0.1 029/2007JG000652. Bauer, M., Fulda, B. Blodau, C. (2008): Groundwater derived arsenic in high carbonate wetland soils: Sources, sinks, and mobility. Science of the Total Environment 40 I: I 09-120. Goldhammer, T., and Blodau, C. (2008): Dessication and product accumulation constrain heterotrophic anaerobic respiration in peats of an ombrotrophic temperate bog. Soil Biology and Biochemistry 40: 2007-2015.

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Blodau, C. Fulda, B., Bauer, M. and Knorr, K.-H. (2008): Arsenic speciation and turnover in intact organic soils during experimental drought and rewetting. Geochimica et Cosmochimica Acta 72, 3991- 4007. Knorr, K.H., Osterwoud, M., and Blodau, C. (2008). Experimental drought changes rates of soil respiration and methanogenesis but not carbon exchange in fen soils. Soil Biology and Biochemit/ly 40: 1781-1791. Fahrner, S., Radke, M., Karger, D., and Blodau, C. (2008): Organic matter mineralisation in the hypolimnion ofa eutrophic maar lake. Aquatic Sciences 70(3): 225-237. Beer, J., Lee, K., Whiticar, M., and Blodau', C. (2008): Geochemical controls on organic matter decomposition in a nOithern peatland. Limnology and Oceanography 53(4): 1393-1407. Heitmann, T., Goldhammer, T., Beer, Blodau, C. (2007): Electron transfer processes of dissolved organic matter and their potential significance for anaerobic respiration in a nolthern bog, Global Change Biology 13: 1771-1785. Knorr, K.H., and Blodau, C. (2007): Chemical controls on schwertmannite transformation. Applied Geochemistry 22: 2006-2015. Blodau, C., Roulet, N. T., Heitmann, T., Stewart, H., Beer, J., Lafleur, P., Moore T. R. (2007): Belowground carbon turnover in a temperate ombrotrophic bog. Global Biogeochemical Cycles 21: GB 1021, doi: I 0.1 029/2005GB002659. Heitmann' A., Blodau C., Postma D., Larsen F., Viet P.H., Nhan P.Q., Jessen S., Due M.T., Hue N.T.M., Jakobsen R. (2007): Hydrogen thresholds and steady state concentrations associated with microbial arsenate respiration, Environmental Science and Technology 41: 2311-2317. Beer, J., Blodau, C. (2007): TranspOit and thermodynamics constrain belowground carbon turnover in a northern peat land, Geochimica et Cosmochimica Acta 71: 2989-3002. Bauer, M., Heitmann, T, Macalady, D. and Blodau, C. (2007): Electron transfer capacities and kinetics of peat dissolved organic matter. Environmental Science and Tecl1l1010gy 41: 139- 145. Blodau, C., Gatzek C. (2006): Chemical controls on iron reduction in schweltmannite rich sediments. Chemical Geology 235: 366-376. Blodau C. and Knorr, K.H. (2006): Experimental inflow of groundwater induces a biogeochemical regime shift in iron rich and acidic sediments. Journal of Geophysical Research III: G020261 0.1 029/2006JGOOO 165 Heitmann, T. and Blodau, C. (2006): Oxidation and incorporation hydrogen sulfide by dissolved organic matter. Chemical Geology 235: 366-376. Knorr, K.H. and Blodau, C. (2006): Altered groundwater inflow remobilizes acidity from iron rich and acidic sediments. Environmental Science and Technology 40, 2944-2950. Bauer, M. and Blodau, C. (2006): Mobilization of arsenic by dissolved organic matter from iron oxides, soils and sediments. Science of the Total Environment 354: 179-190. Dreyer, A., Radke, M., Turunen, J. and Blodau, C. (2005): Long-term change of PAH deposition to peatlands of eastern Canada. Environmental Science and Technology 39 (11): 3918-3924. Dreyer, A., Blodau, C., Turunen, J. and Radke, M. (2005): Spatial distribution of PAH deposition in peatlands across eastern Canada. Atmospheric Environment 39 (20), 3725-3733.

Boland

He, J., T. Zhou, J.C. Young, G.J. Boland, and P.M. Scott. 2009. Chemical and biological transformations for detoxification of trichothecene mycotoxins in the human and animal food chains; A review. Trends in Food Science and Technology DOI: 10.1016/j.tifs.2009.08.002 (Available online).

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He, J., G.J. Boland, and T. Zhou. 2009. Concurrent selection for microbial suppression of Fusarium graminearum, Fusarium head blight and deoxynivalenol in wheat. Journal of Applied Microbiology 106(6): 1805-1817. Kora, C., McDonald, M. R., and Boland, G. J. 2008. Quantification and survival of sclerotia of Sclerotinia sclerotiorum in organic soils of Bradford Marsh, Ontario. Soil Biology and Biochemistry, accepted for publication. Foster, A.J., M.R. McDonald, and G.J. Boland. 2008. Disease progression of sclerotinia rot of carrot, caused by Sclerotinia sclerotiorum, from shoot to root before and after harvest. Can. J. Plant Pathol. 30: 206-213. He, J., R. Yang, T. Zhou, R. Tsao, J. C. Young, H. Zhu, X. Li and G.J. Boland. 2007. Purification of deoxynivalenol from Fusarium graminearum rice culture and mouldy corn by high- speed counter-current chromatography. Journal of Chromatography A 1151: 187-192. Deng, F. And G.J. Boland. 2007. Natural occurrence of a partitivirus in two sapstaining fungi in the genus Ceratocystis. Can. J. Plant Pathol. 29: 182-189. Chen, Yong-Yan, R.L. Conner, C. Gillard, G. J. Boland, C. Babcock, Kan-Fa Chang, S. F. Hwang, and P. M. Balasubramanian. 2007. A specific and sensitive method for the detection of Colletotrichum lindemuthianum in dry bean tissue. Plant Disease 91: 1271- 1276. Deng, F., and G.J. Boland. 2006. Attenuation of virulence in Sclerotinia homoeocarpa during storage is associated with latent infection by Ophiostoma novo-ulmi mitovirus 3a. European Journal of Plant Pathology 114: 127-137. Boulter-Bitzer, J.I., J.T. Trevors and G.J. Boland. 2006. A polyphasic approach for assessing maturity and stability in compost intended for suppression of plant pathogens. Applied Soil Ecology 34: 6581. Chen, Li-Hong, Greg J. Boland, and Weian Yan. 2005. Presence and subcellular location of dsRNAs in Sclerotium cepivorum and biocontrol strategy of the pathogen. Mycosystema 24(3): 429-435. Kora, C., McDonald, M. R., and Boland, G. J. 2005. Lateral clipping of canopy influences the microclimate and development of apothecia of Sclerotinia sclerotiorum in carrots. Plant Disease 89: 549-557. Kora, C., M.R. McDonald, and G.J. Boland. 2005. Epidemiology of sclerotinia rot of carrot caused by Sclerotinia sclerotiorum. Can. J. Plant Pathology 27: 245-258. Melzer, M.S., Deng, F., and Boland, G.J. 2005. Asymptomatic infection, and distribution of Ophiostoma mitovirus 3a (OMV3a), in populations of Sclerotinia homoeocarpa. Can. J. Plant Pathol. 27: 610-615. Stewart-Wade, S.M. and G.J. Boland. 2005. Oil emulsions increase efficacy of Phoma herbarum to control dandelion but are phytotoxic. Biocontrol Science and Technology 15:671-681. Kora, C., M. R. McDonald, and G. J. Boland. 2005. Occurrence of fungal pathogens of carrots on wooden boxes used for storage. Plant Pathology 54: 665-670.

Dixon

Wheeler, R.M., Wehkamp, C., Stasiak, M., Dixon, M. and Rygalov, V. 2010. Plants survive rapid decompression: Implications for bioregenerative life support. Advances in Space Research. (In press) (ASR-D-10-00296). Zheng, Y., Cayanan, D.F. and Dixon, M. 2010. Optimum Feeding Nutrient Solution concentration for greenhouse potted miniature rose production in a recirculating subirrigation system. Hort Science (In press)

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Surrage, V.V., Lafreniere, C., Dixon, M. and Zheng, Y. 2010. Growth substrates for organic greenhouse tomato production. Hort Science (In press) Zheng, Y, Wang L, Cayanan D. and Dixon M. 2010. Greenhouse cucumber growth and yield response to copper application. HortScience 45(5):771-774. Lafrenière C, Surrage V, Dixon M and Zheng Y. 2010. Evaluation of zeolite as a component in organic growing substrates for tomato transplant troduction. Acta Horticulturea (In press). Zheng Y, Dombrowsky M and Dixon M. 2009. The use of compost or composting process to suppress Pythium Aphanitdermatum in used rockwool. Acta Horticulturea. 843: 327-332. Graham, T., P. Zhang, Y. Zheng, and M. Dixon. 2009. Phytotoxicity of aqueous ozone on five container-grown nursery species. HortScience 44(3):774-780. Bamsey, M., M. Dixon, T. Graham, A. Berinstain, T. Rondeau Vuk, M. Stasiak, A. Scott. 2009. Canadian Advanced Life Support Capacities and Future Directions. Advances in Space Research. 44, 151-161. Cayanan, D., J. Llewellyn, M. Dixon, and Y. Zheng. 2009. Response of containergrown nursery plants to chlorine used to disinfest irrigation water. HortScience 44(1): 164-167. Cayanan, D., P. Zhang, W. Liu, M. Dixon, and Y. Zheng. 2009. Efficacy of Chlorine in controlling five common plant pathogens. HortScience 44(1):157-163. Cayanan D. F., M. Dixon and Y. Zheng. 2008. Development of an automated irrigation system using wireless technology and root zone environment sensors. Acta Horticulturae 797: 167-171. Robinson, S., T. Graham, M. Dixon, Y. Zheng. 2008. Aqueous ozone can extend cut rose vase-life. Journal of Horticultural Science and Biotechnology. 84 (1) 97-101. Cayanan D.F., Y. Zheng, C. Chong, P. Zhang, T. Graham, J. Llewellyn and M. Dixon. 2008. Overhead Irrigation with Chlorinated Water on Five Container-Grown Nursery Species. HortScience 43:1882-1887. Cayanan, D.F., Zheng, Y., Chong, C., Graham, T., Zhang, P., Llewellyn, Liu, W. and Dixon, M. 2007. Responses of five nursery plant species to chlorinated water and efficacy of using chlorine to control diseases in irrigation water. HortScience 42:861. Robinson, S., Dixon, M. and Zheng, Y. 2007. Vascular blockage in cut roses in a suspension of Pseudomonas fluroescens. Journal of Horticulture Science and Biotechnology. 82 (5) 808- 814. Giroux, R.; Berinstain, A.; Braham, S.; Graham, T.; Bamsey, M.; Boyd, K.; Silver, M.; Lussier- Desbiens, A.; Lee, P.; Boucher, M.; Cowing, K.; Dixon, M. 2006. Greenhouses in extreme environments: The Arthur Clarke Mars Greenhouse design and operation overview. Advances in Space Research, 38, 1248-1259. Zheng, Y., L. Wang, and M. Dixon (2005). Greenhouse pepper growth and yield response to copper application. HortScience 40(7): 2132-2134. Zheng, Y., Graham, T., Richard, S., Dixon, M. (2005). Can low nutrient strategies be used for pot gerbera production in closed-loop subirrigation? Acta Horticulturae. 691: 365-372. Waters, G., Gidzinski, D., Zheng, Y. and Dixon, M. (2005). Empirical relationships between light intensity and crop net carbon exchange rate at the leaf and full canopy scale: towards integration of a higher plant chamber in MELiSSA. SAE Technical Paper 2005-01-3071. Waters G., D. Gidzinski, Y. Zheng, M. Dixon. 2005. Empirical Relationships Between Light Intensity and Crop Net Carbon Exchange Rate at the Leaf and Full Canopy Scale: Towards Integration of a Higher Plant Chamber in MELiSSA. SAE Technical Paper Series 2005-01-3071.

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Dunfield

Samarajeewa, A., Glasauer, SM., Dunfield, KE. 2010. Evaluation of the Petrifilm EC method for enumeration of E. coli from Soil. Lett. Appl. Microbiol. 50:457-461. Smith, JM, Wagner-Riddle, C, Dunfield, KE. 2010. Changes in structure of nitrifying and denitrifying communities during a spring thaw N2O flux are affected by tillage system. Appl. Soil Ecol. 44: 138-146. Antunes, PM, Koch, A, Dunfield, KE, Hart, M, Downing, A, Klironomos, JN. 2009. Influence of commercial inoculation with Glomus intraradices on the structure and functioning of an AM fungal community from an agricultural site. Plant Soil. 317: 257-266. Hart, MM., Powell, JR, RG, Gulden, Levy-Booth, DJ, Dunfield, KE, Pauls, KP, Swanton, CL, Klironomos, JN, Trevors JT. 2009. Detection of transgenic cp4 epsps genes in the soil food web. Agron. Sustain. Dev. 29: 497-501 Levy-Booth, DJ, Gulden, RH, Campbell, RG, Powell, JR, Klironomos, JN, Pauls, KP, Swanton, CL, Trevors JT, Dunfield, KE. 2009. Roundup Ready® soybean gene concentrations in field soil aggregate size classes. FEMS Microb Letters 291: 175-179. Powell, J, Levy-Booth, D, Gulden, R, Asbil, WL, Campbell, RG, Dunfield, KE, Hamill, AS, Hart, M, Lerat, S, Nurse, RE, Pauls, PP, Sikkema, PH, Swanton, CJ, Trevors, J and Klironomos, J. 2009. Variety and management effects on soil food web dynamics and litter decomposition in a genetically-modified, herbicide-tolerant cropping system. J. Appl. Ecol. 46: 388-396. Powell JR, Gulden RH, Hart MM, Campbell RG, Levy-Booth DJ, Dunfield KE, Pauls KP, Swanton CJ, Trevors JT, and Klironomos JN. 2009. Effect of glyphosate on the tripartite symbiosis formed by Glomus intraradices, Bradyrhizobium japonicum, and genetically modified soybean. Appl. Soil Ecology: 41: 128-136. Shi, X., Wu, Z, Namvar, A, Kostrzynska, M, Dunfield, K., Warriner, K. 2009. Microbial Population Profiles of the Microflora Associated with Pre- and Post-harvest Tomatoes contaminated with Salmonella typhimurium or Salmonella montevideo. J. Appl. Microbiol. 107: 329-338 Levy-Booth, DJ, Campbell, RG, Gulden, RH, Hart, MH, Powell, JR, Klironomos, JN, Pauls, KP, Swanton, CL, Trevors JT, Dunfield, KE. 2008. Real-time polymerase chain reaction monitoring of recombinant DNA entry into soil from decomposing Roundup Ready® leaf biomass. JAFC: 56: 6339-6347. Gulden R H, Lerat, S, Blackshaw, RE, Powell, JR, Levy-Booth, D, Dunfield, KE, Trevors, JT, P. Pauls, K, Klironomos, JN, Swanton, CJ. 2008. Factors Affecting the Presence and Persistence of Plant DNA in the Soil Environment in Corn and Soybean Rotations. Weed Sci: 56:767-774. Development of real-time PCR methodology and analysis Gulden R H, Levy-Booth, D, Campbell, R., Powell, J, Hart, MM, Dunfield, KE, Trevors, JT, Pauls, KP, Klironomos, JN, Swanton, C. 2007. An empirical approach to absolute target DNA quantification in environmental samples using single polymerase chain reactions. Soil Biol. Biochem. 39: 1956-1967. Levy-Booth, DJ, Campbell, RG, Gulden, RH, Hart, MH, Powell, JR, Klironomos, JN, Pauls, KP, Swanton, CL, Trevors JT, Dunfield, KE. 2007. Cycling of extracellular DNA in the soil environment. Soil Biol. Biochem. 39: 2977-2991. Powell JR, Gulden RH, Hart MM, Campbell RG, Levy-Booth DJ, Dunfield KE, Pauls KP, Swanton CJ, Trevors JT, and Klironomos JN. 2007. Mycorrhizal and rhizobial K.E. Dunfield, colonization of genetically-modified and conventional soybeans. Appl. Environ. Microbiol. 73:4365-4367.

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Glasauer

Mattes, A., Evans, L. J., Gould, W. D., Duncan, W. F. A., and Glasauer, S. A five-year history of a biologically based treatment system that removes high concentrations of As, S and Zn from industrial (smelter based) landfill seepage. Applied Geochemistry, in press. Schneider, Kimberley; Van Straaten, Peter; Mira de Orduña, Ramón; Glasauer, Susan; Trevors, Jack; Fallow, David; Smith, Peter. Comparing phosphorus mobilization strategies using Aspergillus niger for the mineral dissolution of three phosphate rocks. Journal of Applied Microbiology 108: 366-374. X. Sherry Li, Susan Glasauer, X. Chris Le. Speciation of vanadium in oilsand coke and bacterial culture by high performance liquid chromatography inductively coupled plasma mass spectrometry. Anal. Chim. Acta 602: 17-22

Goodwin

Cortes-Barco, A.M., Hsiang, T. and Goodwin, P.H. 2010. Induced systemic resistance against three foliar diseases of Agrostis stolomifera by (2R, 3R)-butanediol or an isoparrafin mixture. Annals of Applied Biology. (Accepted Apr. 5, 2010) Xie, W. and Goodwin, P.H. 2009. A PRp27 gene of Nicotiana benthamiana contributes to resistance to Pseudomonas syringae pv. tabaci but not to Colletotrichum distructivum or Colletotrichum orbiculare. Functional Plant Biology 36: 351-361. Xie, W., Hao, L. and Goodwin, P.H. 2008. Role of a xyloglucan-specific endo-ß-1,4-glucanase inhibitor in the interactions of Nicotiana benthamiana with Colletotrichum destructivum, C. orbiculare or Pseudomonas syringae pv. tabaci. Molecular Plant Pathology 9: 191-202. Afunian, M.R., Goodwin, P.H. and Hunter, D.M. 2006. Search for molecular markers linked to fire blight resistance in pear (Pyrus communis). Acta Horticulturae 704: 557-566. Hao, L., Goodwin, P.H. and Hsiang, T. 2007. Expression of a metacaspase gene of Nicotiana benthamiana after inoculation with Colletotrichum destructivum or Pseudomonas syringae pv. tomato and the effect of silencing the gene on the host response. Plant Cell Reports 26: 1879-1888. Hao, L., Hsiang, T. and Goodwin, P.H. 2006. Role of two cysteine proteinases in the susceptible response of Nicotiana benthamiana to Colletotrichum destructivum and the hypersensitive response to Pseudomonas syringae pv. tomato. Plant Science 170: 1001- 1009. Shan, X.C. and Goodwin, P.H. 2006. Silencing an ACC oxidase gene effects the susceptible host response of Nicotiana benthamiana to infection by Colletotrichum orbiculare. Plant Cell Reports 25: 241-247. Dean, J.D., Goodwin, P.H. and Hsiang, T. 2005. Induction of glutathione S-transferase genes of Nicotiana benthamiana following infection by Colletotrichum destructivum and C. orbiculare and involvement of one in resistance. Journal of Experimental Botany 56: 1525- 1533. Shan, X.C. and Goodwin, P.H. 2005. Identification of a SAR8.2 gene in the susceptible host response of Nicotiana benthamiana to Colletotrichum orbiculare. Functional Plant Biology 32: 259-266. Shan, X.C. and Goodwin, P.H. 2005. Reorganization of filamentous actin in Nicotiana benthamiana leaf epidermal cells inoculated with Colletotrichum destructivum and Colletotrichum graminicola. International Journal of Plant Sciences 166: 31-39.

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Gordon, A.

Evers, A. K., T. A. Demers, A. M. Gordon and N. V. Thevathasan. 2010. The effect of earthworm (Lumbricus terrestris L.) density and soil water content interactions on nitrous oxide emissions from agricultural soils. Applied and Environ. Soil Sci. DOI: 10.1155/2010/ 737096. Clinch, R. L., N. V. Thevathasan, A. M. Gordon, T. A. Volk and D. Sidders. 2009. Biophysical interactions in a short rotation willow intercropping system in southern Ontario, Canada. Agric. Ecosyst. and Environ. 131:61-69. Dougherty, M. C., N. V. Thevathasan, A. M. Gordon, H. Lee and J. Kort. 2009. Nitrate and E. coli NAR analysis in tile drain effluent from a mixed tree intercrop and monocrop system. Agric., Ecosyst. and Environ. 131:77-84. Manceur, A. M., N. V. Thevathasan, G. J. Boland and A. M. Gordon. 2009. Dry matter partitions and specific leaf weight of soybean change with tree competition in an intercropping system. Agroforestry Systems 76:295-301. Cott, P.A., Sibley, P.K., Somers, M., Lilly, M.R., Bodaly, R.A., and A. Gordon. 2008. A review of water withdrawal effects on aquatic biota with emphasis on fish in ice covered lakes. J. Amer. Water Res. Assoc. 44: 343-359. Cott, P.A., Sibley, P.K., Gordon, A.M., Bodaly, R.A., Mills, K., and G. Fillatre. 2008. The effects of water withdrawal from ice-covered lakes on oxygen and the potential implications for fish. J. Amer. Water Res. Assoc. 44: 328-342. Hazlett, P.W., Gordon, A.M., J. Buttle and Sibley, P.K. 2008. Controls on carbon and nitrogen leaching in an undisturbed boreal forest landscape: Ramifications for riparian zones. Can. J. For. Res. 38:16-30. Oelbermann, M., A. M. Gordon and N. K. Kaushik. 2008. Biophysical changes resulting from 16 years of riparian forest rehabilitation: An example from the southern Ontario agricultural landscape. p. 13 – 26. Jose, S. and A. M. Gordon (eds.) 2008. Towards Agroforestry Design: An Ecological Approach. Advances in Agroforestry 4. Springer,The Netherlands. p. 312. Manceur, A. M., N. V. Thevathasan, A. M. Gordon and G. J. Boland. 2008. Leaf and root necrosis of soybean are associated with black walnut and Fusarium solani in a tree-based intercrop. Can. J. Plant. Pathol. 30:1-14. Starr, M., Ukonmaanaho, L., Sibley, P.K., and A.M. Gordon. 2007. Elemental deposition in boreal forests in relation to collector type and experimental design. Environ. Monit. Assessm. 125: 123-136. Hazlett, P.W., Gordon, A.M., P. Voroney and Sibley, P.K. 2007. Nitrogen mineralization and immobilization from soils in upland boreal forest cutovers. Soil Biol. Biochem. 64: 43-57. Hazlett, P.W., Gordon, A.M., Sibley, P.K., and J.M. Buttle. 2005. Carbon and nitrogen pools of riparian and upland boreal forest and soils in northeastern Ontario. For. Ecol. Managem. 219: 56-68. Peichl, M., N. V. Thevathasan, A. M. Gordon, J. Huss, and R. Abohassan. 2006. Carbon sequestration potentials in temperate tree-based intercropping systems, Ontario, Canada. Agroforestry Systems 66:243-257. Oelbermann, M., R. P. Voroney, N. V. Thevathasan, A. M. Gordon, D.C.L. Kass and A. M. Schlonvoigt. 2006. Soil carbon dynamics and residue stabilization in a Costa Rican and southern Canadian alley cropping system. Agrofor. Syst. 68:27-36. Hunt, S.L., A. M. Gordon and D. M. Morris. 2005. Aspects of ecological development in managed stands of jack pine and black spruce in northern Ontario: understory vegetation and nutrient relations. For. Chron. 81:61-72.

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Oelbermann, M., R. P. Voroney and A. M. Gordon. 2005. Carbon sequestration in tropical and temperate agroforestry systems: a review with examples from Costa Rica and southern Canada. Agricult., Ecosyst. and Environ. 104:359-377. Isaac, M.E., A. M. Gordon, N. V. Thevathasan, S. K. Oppong and J. Quashie-Sam. 2005. Temporal changes in soil carbon and nitrogen in west African multistrata agroforestry systems: a chronosequence of pools and fluxes. Agrofor. Syst. 65:23- 31.

Gordon, R.

Cleary, B.A., R. C. Jamieson, R. Gordon, and C.B. Lake. 2010. Waste management of typical livestock mortalities in Canada: An overview of regulations and guidelines. In press Canadian Biosystems Engineering Journal. Fredeen, A. H., M. Main, S. Juurlink, J. Hoyle, T. Astatkie, R. Martin and R. Gordon. 2010. enteric methane emission and concentrate use in alternative dairy systems. In press Canadian Journal Animal Science. Wood, J.D., R. Gordon, A. Madani, and G.W. Stratton. 2010. An assessment of seasonal and continuous loading of agricultural wetlands. In press Canadian Biosystems Engineering Journal. VanderZaag, A.C., R. Gordon, R. C. Jamieson, D. L. Burton and G. W. Stratton. 2010. Permeable synthetic covers for controlling emissions from liquid dairy manure. Applied Engineering in Agriculture 26: 287-297. Boutilier, L., R. Jamieson, R. Gordon, C. Lake and W. Hart. 2009. Adsorption, sedimentation, and inactivation of E. coli within wastewater treatment wetlands. Water Research 43:4370- 80. Boutilier, L., R. Jamieson, C. Lake, R. Gordon and W. Hart. 2010. Performance of surface-flow domestic wastewater treatment wetlands. Wetlands. DOI 10.1007/s13157-010-0067-1. VanderZaag, A.C., R. J. Gordon, R.C. Jamieson, D.L. Burton and G.W. Stratton. 2010. Effects of winter storage conditions and subsequent agitation on gaseous emissions from liquid dairy manure. Canadian Journal of Soil Science 90: 229-239. Kinley, R., R. Gordon and G. Stratton. 2010. Soil test phosphorus as an indicator of nitrate– nitrogen leaching risk in tile drainage water. Bulletin of Environmental Contaminant Toxicology 84:413–417. VanderZaag, A.C., R. Gordon, R.C. Jamieson, D.L. Burton and G.W. Stratton. 2009. Gas emissions from straw covered liquid dairy manure during summer storage and fall agitation periods. Trans of ASABE 52:599-608. Smith, E., R. Gordon, C. Bourque, A. Campbell, S. Génermont, P. Rochette and M. Mkhabela. 2009. Predicting ammonia loss from surface applied manure. Can. J. of Soil Sci. 89: 357- 367. Mkhabela, M.S., R. Gordon, E. Smith, A. Madani and D. Burton. 2008. Measurement of odour emissions using micrometeorological techniques following application of hog slurry to grass. Can. Bio. Eng. 50: 6.37-6.45. Smith, E., R. Gordon, C. Bourque, A. Campbell, S. Genermont and P. Rochette. 2009. Simulated management on ammonia emissions from field applied manure. J. of Env. Management 90:2531-2536. MacPhee, N., R. Gordon, G. Gagnon, G. Stratton and J. Wood. 2009. Evaluation of a mechanical aeration system for a constructed wetland receiving agricultural wastewater. Trans. Am. Soc. of Agric. and Bio. Eng. 52: 111-119. Mkhabela, M.S., R. Gordon, D. Burton, E. Smith and A. Madani. 2008. The impact of management practices and meteorological conditions on ammonia and nitrous oxide

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emissions following application of hog slurry to forage grass in Nova Scotia. Agric. Ecosystems and Env. 130:41-49. Havard, P., R. Jamieson, L. Boutilier, D. Cudmore and R. Gordon. 2008. Performance and hydraulics of lateral flow sand filters for on-site wastewater treatment. J. of Hydrologic Eng. 13:720-728. Wood, J.D., R. Gordon, A. Madani, and G.W. Stratton. 2008. A long-term assessment of phosphorus treatment by a constructed wetland receiving agricultural wastewater. Wetlands Journal 28:715-723. VanderZaag, A.C., R. Gordon, D. Burton, R. Jamieson and G. Stratton. 2008. Ammonia emissions from surface and subsurface flow constructed wetlands. JEQ 37:1-9. IF=2.098 Brisbois, M.C., R. Jamieson, R. Gordon, G. Stratton and A. Madani. 2008. Stream ecosystem health in rural mixed land-use watershed. J. Environ. Eng. Sci. 7:439-452. Afari-Sefa, V., E. Yiridoe, R. Gordon and D. Hebb. 2008. Decision considerations and cost analysis of BMP implementation in Thomas Brook Watershed, Nova Scotia. Journal of International Farm Management 4:1-32. Smith, E., R. Gordon, C. Bourque and A. Campbell. 2008. Management strategies to simultaneously reduce ammonia, nitrous oxide and odour emissions from surface applied swine manure. Can. J. of Soil Sci. 88: 571-584. VanderZaag, A.C., R. Gordon, V.M. Glass and R.C. Jamieson. 2008. Floating covers to reduce gas emissions from liquid manure storages. A review. Applied Eng. in Agriculture 24: 657- 671. Gallant, T.L., J. MacLeod, R. Gordon, J. Blanchard and M. Grimmett. 2008. Stabilization of blue mussel (mytilus edulis L.) processing waste with Ca(OH)2. Journal of Solid Waste Management and Technology 34:47-54. Bailey, J.A., R. Gordon, D. Burton and E.K. Yiridoe. 2008. Energy conservation on Nova Scotia farms: baseline energy data. Energy 33: 1144-1154. Bailey, J.A., R. Gordon, D. Burton and E.K. Yiridoe. 2008. Factors which influence Nova Scotia farmers in implementing energy efficiency and renewable energy measures. Energy 33:1369-1377. Mkhabela, M.S., R. Gordon, D. Burton, A. Madani and W. Hart. 2008. Nitrous oxide emissions and soil mineral nitrogen status following application of hog slurry and inorganic fertilisers to acidic soils under forage grass. Can. J. of Soil Sci. 88: 145-151. Mkhabela, M.S., A. Madani, R. Gordon, D. Burton, D. Cudmore, A. Elmi and W. Hart. 2008. Gaseous and leaching nitrogen losses from no-tillage and conventional tillage systems following surface application of cattle manure. Soil and Tillage Research 98: 187-199. Smith, E., R. Gordon, C. Bourque and A. Campbell. 2007. An assessment of odour emissions from land applied swine manure. Can. J. Bio. Eng. 49: 6.33-6.40. Smith, E., R. Gordon, C. Bourque and A. Campbell, A. 2007. Comparison of three simple field Thiagarajan, A., R. Gordon, A. Madani and G. W. Stratton. 2007. Discharge of Escherichia Coli from agricultural surface and subsurface drainage water: Tillage effects. Water, Air, and Soil Pollution 182:3-12. Jamieson, R., R. Gordon, E. Smith, N. MacPhee and A. Madani. 2007. Determination of first order rate constants for wetlands treating livestock wastewater in cold climates. J. of Env. Eng. and Sci. 6:65-72. Smith, E., R. Gordon, A. Madani and G. Stratton. 2006. Year-round treatment of dairy wastewater by constructed wetlands in Atlantic Canada. Wetlands J. 26:100-108. Mhkabela, M., R. Gordon, D. Burton, A. Madani and W. Hart. 2006. Ammonia and nitrous oxide emissions from two acidic soils of Nova Scotia fertilised with liquid hog manure mixed with or without dicyandiamide. Chemosphere 65:1381-1387.

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Mhkabela, M., R. Gordon, D. Burton, A. Madani and W. Hart. 2006. Effect of lime, dicyandiamide and soil water content on ammonia and nitrous oxide emissions following application of liquid hog manure to a marshland soil. Plant and Soil 284:351-361. Kinley, R.D., R. Gordon and G. Stratton. 2006. Trends in phosphorous leaching under various agricultural practices. J. of Env. Qual. 36:469-477. Elmi, A., T. Astatkie, C. Madramootoo, R. Gordon and D. Burton. 2005. Assessing denitification gaseous end-products in the soil profile under two water table management practices using repeated measures analysis. JEQ 34:446-454. Elmi, A , A. Madani, R. Gordon, P. MacDonald and G.W. Stratton. 2005. Nitrate nitrogen in the soil profile and drainage water as influenced by manure and mineral fertilizer application in a barley-carrot production system. Water, Air and Soil Pollution 160:119-132. Jamieson, R., D. Joy, H. Lee, R. Kostaschuk and R. Gordon. 2005. Resuspension of sediment- associated Escherichia coli in a natural stream. JEQ 34:581-589. Smith, E., R. Gordon, A. Madani and G. Stratton. 2005. Cold climate hydrological flow characteristics of constructed wetlands. Can. J. Bio. Eng. 47:1.1-1.7. Elmi, A.A., R. Gordon, C. Madramootoo and A. Madani. 2005. Watertable management for reducing nitrate accumulation in a soil profile under corn production. Can. J. Bio. Eng. 47:23-28. Gordon, R., T. Hauser, A.A. Elmi, A. Madani, V. Rodd and P. Leblanc. 2005. Nitrate and pesticide leaching from processing carrot production systems in Nova Scotia. Can. J. of Plant Sci. 85:205-211. Jamieson, R., D. Joy, H. Lee, R. Kostaschuk and R. Gordon. 2005. Modeling the transport and deposition of sediment-associated Escherichia Coli in streams. Water Res. 39:2665-2675. Smith, E., R. Gordon, A. Madani and G. Stratton. 2005. Pathogen removal by agricultural constructed wetlands in cold climates. J. of Env. Informatics. 6:46-50. Elmi, A.A., D. Burton, R. Gordon and C. Madramootoo. 2005. Impacts of water table management technology on N2O and N2 from a sandy loam soil in southwestern Quebec, Canada. Nutrient Cycling and Agroecosystems 72:229-240.

Guzman

Hamiduzzaman, M.M., E. Guzmán-Novoa and P.G. Goodwin. 2010. A simple multiplex PCR assay to diagnose and quantify Nosema infections in honey bees (Apis mellifera). Journal of Invertebrate Pathology. In Press. Guzmán-Novoa, E., L. Eccles, Y. Calvete, J. McGowan, P.G. Kelly and A. Correa-Benítez. 2010. Varroa destructor is the main culprit for the death and reduced populations of overwintered honey bee (Apis mellifera) colonies in Ontario, Canada. Apidologie 41: 443- 450. DOI: 10.1051/apido/2009076. Unger, P. and E. Guzmán-Novoa. 2010. Maternal effects on the hygienic behavior of Russian x Ontario hybrid honeybees (Apis mellifera L.). Journal of Heredity 101: 91-96. Doi: 10.1093/jhered/esp092. 6 pp. Gashout, A.H. and E. Guzmán-Novoa. 2009. Acute toxicity of essential oils and other natural compounds to the parasitic mite Varroa destructor and to larval and adult worker honey bees (Apis mellifera L.). Journal of Apicultural Research 48: 263-269. Doi: 10.3896/IBRA.1.48.4.06. Taylor, M.A., E. Guzmán-Novoa, N. Morfín and M.M. Buhr. 2009. Improving viability of cryopreserved honey bee (Apis mellifera L.) sperm with selected diluents, cryoprotectants, and semen dilution ratios. Theriogenology 72: 149-159. Doi: 10.1016/j.theriogenologgy.2009.02.012.

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Uribe-Rubio, J.L., E. Guzmán-Novoa, C. Vázquez-Peláez, and G.J. Hunt. 2008. Genotype, task specialization, and nest environment influence the stinging response thresholds of individual Africanized and European honeybees to electrical stimulation. Behavior Genetics 38: 93-100. Emsen, B., E. Guzmán-Novoa, and P.G. Kelly. 2007. The effect of three methods of application on the efficacy of thymol and oxalic acid for the fall control of the honey bee parasitic mite Varroa destructor in a Northern climate. American Bee Journal 147: 535-539. Espinoza, L.G. and E. Guzmán-Novoa. 2007. Efficacy of two natural miticides, formic acid and thymol, for control of the mite Varroa destructor in honey bees (Apis mellifera L.) in Villa Guerrero, Mexico. Veterinaria 38: 9-19.

Habash

No student publications during the assessment period

Hale

Bacigalupo, C. and B. Hale. Soil – Plant Transfer Factors for Garden Produce from Contaminated Soils: Site Specific versus Generic Data for As and Pb. In press. Human and Ecological Risk Assessment. Van der Vliet, L., C. Peterson and B.A. Hale. 2007. Cd accumulation in roots and shoots of durum wheat: the roles of transpiration rate and apoplastic bypass. Journal of Experimental Botany Advance Access doi:10.1093/jxb/erm119. Antunes, P.M.C., A.C. Ryan and B. Hale. 2007. Toxicity vs. accumulation for barley plants exposed to {Cu2+} in EDTA and NTA in MES buffered solutions. Environmental Toxicology and Chemistry. 11:2282-2289. Chan, D.Y., W.D. Black and B.A. Hale. 2007. Cadmium bioavailability and bioaccessibility as determined by in vitro digestion, dialysis and intestinal epithelial monolayers, and compared to in vivo data. Journal of Environmental Science and Health, Part A. 42:1283- 1291. Antunes, P.M.C. and B. Hale. 2006. Determination of conditional stability constants for durum wheat (Triticum turgidum): the effect of NTA on metal diffusion and supply limitations to root-metal binding. Plant and Soil 284:229-241. Antunes, P.M.C., E. Berkelaar, D. Boyle, B.A. Hale, W. Hendershot, and A. Voigt. 2006. The biotic ligand model for plants and metals: technical challenges for field application. Environmental Toxicology and Chemistry 25(3):875-882. Waisberg, M., W.D. Black, D.Y. Chan and B. Hale. 2005. The effect of pharmacologically altered gastric pH on cadmium absorption from the diet and its accumulation in murine tissues. Food and Chemical Toxicology 43:775-782.

Hall

Hussack, G., Grohs, B.M., Almquist, K.C., McLean, M.D., Ghosh, R., Hall, J.C. 2010. Purification of plant-derived antibodies through direct immobilization of affinity ligands on cellulose. J. Agric. F. Chem. 58:3451-3459. Xie, X., Weisser N.E., McLean, M.D., Hall, J.C. 2010. Complexes with anti-epitope tag IgGs improve the therapeutic potential of epitope-tagged antibody fragments. Mol. Imm. 47: 1529-1534.

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Xie, X., McLean, M.D., Hall, J.C. 2010. Antibody-dependent cell-mediated cytotoxicity- and complement-dependent cytotoxicity-independent bactericidal activity of an IgG against Pseudomonas aeruginosa O6ad. JIM. 184:3725-3733. Doyle, P.J., Saeed, H., Hermans, A., Gleddie, S.C., Hussack, G., Arbabi-Ghahroudi, M., Seguin, C., Savard, M.E., MacKenzie C.R., Hall J.C. 2009. Intracellular expression of a single-domain antibody reduces cytotoxicity of 15-acetyl-deoxynivalenol in yeast. J. Biol. Chem. 284: 35029-35039. Hussack, G., Luo, Y., Veldhuis, L., Hall, J.C., Tanha, J., MacKenzie, R. 2009. Multivalent anchoring and oriented display of single-domain antibodies on cellulose. Sensors. 9: 5351-5367 Doyle, P.J.; Arbabi-Ghahroudi, M.; Gaudette, N.; Furzer, G.; Savardm M.E.; Gleddie, S.; McLean, M.D.; Mackenzie, C.R.; Hall, J.C. 2008. Cloning, expression, and characterization of a single-domain antibody fragment with affinity for 15-acetyl- deoxynivalenol. Molecular Immunology. 45(14) 3703-3713. Doyle. P.J., Arbabi-Ghahroudi,M., Gaudette, N., Hermans, A., Musa, L., Furzer, G.S., Savard, S.C., MacKenzie, C.R., Hall, J.C. 2008. Recombinant antibodies with affinity for deoxynivalenol-a novel tool against fusarium head blight. Can. J. Plant Path. 30:351-353. Mithila, J., Swanton C. J., Blackshaw, R.E., Cathcart, R.J and Hall, J.C. 2008. Physiological basis for reduced glyphosate efficacy on weeds grown under low soil nitrogen. Weed Science. 56: 12-17. Sheedy, C., Mackenzie, R.C., and Hall, J.C. 2007. Isolation and affinity maturation of hapten- specific antibodies. Biotech. Adv. 25:333-352. Weisser, N.E., Almquist, K.C., Hall, J.C. 2007. A rAb screening method for improving the probability of identifying peptide mimotopes of carbohydrate antigens. Vaccine. 25:4611- 4622. Weinberg, T., McLean, M.D., Stephenson, G.R., Satchivi, N.M., Hall, J.C. 2007. Basis for antagonism by sodium bentazon of tritosulfuron toxicity to white Bean (Phaseolus vulgaris L.) J. Agric. F. Chem. 55:2268-2275. Stewart, C.S., MacKenzie, C.R., and Hall, J.C. 2007. Isolation and characterization of alpha- cobrotoxin specific single-domain antibodies from a naïve phage display library and their pentamerization for antivenom development. Toxicon 49:699–709. Mithila, J., Hall, J.C. 2007. Production of an auxinic herbicide-resistant microspore-derived doubled haploid wild mustard (Sinapis arvensis L.) plant J. Crop Prot., 26:357-362. Weinberg, T., Stephenson, G.R., Hall, J.C. 2006. MCPA (4-Chloro-2-ethylphenoxyacetate) resistance in hemp-nettle (Galeopsis tetrahit L.) J. Agric. F. Chem. 54:9126-9134. Furzer, G.S., Veldhuis, L.J., Hall, J.C. 2006. Development and comparison of three diagnostic immunoassay formats for the detection of azoxystrobin. J. Agric. F. Chem., 54:688-693. Sheedy, C., Yau, K.Y.F., Hirama, T., MacKenzie, C.R., Hall, J.C. 2006. Selection, characterization and CDR shuffling of naïve llama single-domain antibodies selected against auxin and their cross-reactivity with auxinic herbicides from four chemical families. J. Agric. Food Chem., 54:3668-3678. Ramsey, R., Stephenson, G.R., Hall, J.C., 2006. Effect of humectants on the uptake and efficacy of glufosinate ammonium in wild oat (Avena fatua) plants and isolated cuticles under dry conditions. Weed Sci., 54:205-211. Churchill, R.L.T., Lee, H., Hall, J.C., 2006. Detection of Listeria monocytogenes and the toxin listeriolysin O in food. J. Microbiological Methods, 64:141-170. Makvandi-Nejad, S., McLean, M.D., Hirama, T., Almquist, K.C., MacKenzie, C.R., Hall, J.C., 2005. Transgenic tobacco plants expressing a dimeric single-chain variable fragment (scFv) antibody against Salmonella enterica serotype Paratyphi B. Transgenic Res., 14:785-792.

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Ramsey, R.J.L., Stephenson, G.R., Hall, J.C., 2005. A review of the effects of humidity, surfactant composition, and spray additives on the absorption and efficacy of water soluble herbicides. Pesticide Biochemistry and Physiology, 82:162-175, 2005. Yau, K.Y.F., Dubuc G., Li , S., Hirama, T., MacKenzie,C.R., Jermutus, L., Hall, J.C., Tanha, J., 2005. Affinity maturation of a VHH by mutational hotspot randomization. Journal of Immunological Methods, 297: 213-224. Van Eerd, L.L., Stephenson, G.R., Kwiatkowski, J., Grossman, K., Hall, J.C., 2005. Physiological and biochemical characterization of quinclorac resistance in a flase cleavers (Galium spurium L.). Journal of Agricultural and Food Chemistry, 53:1144-1151, 2005. Fjallman, T., Hall, J.C., 2005. Antibody engineering – a valuable asset in preventing closed environment epidemics. Acta Astronautica, 57: 81-88. Churchill, R.L.T., Lee, H., Hall, J.C. 2005. Rapid purification of recombinant listeriolysin O (LLO) from Escherichia coli. Journal of Industrial Microbiology Biotechnology, 32: 355-363. Jugulam, M., McLean, M.D., Hall, J.C., 2005. Inheritance of picloram and 2,4-D resistance in wild mustard (Brassica kaber). Weed Science, 53:417-423, 2005. Jugulam, M., Hall, J.C., 2005. Comparison of ABP1 over-expressing arabidopsis and under- expressing tobacco with an auxinic herbicide-resistant wild mustard (brassica kaber) biotype Plant Science, 169(1): 21-28. Beninger, C.W., Hall, J.C., 2005. Allelopathic activity of luteolin 7-O-B-glucuronide isolated from Chrysanthemum morifolium L., Biochemical Systematics and Ecology, 33:105-111.

Hallett

Frewin, A. J., Xue, Y., Welsman, J.A., Broadbent, B., Schaafsma. A.W. and R. H. Hallett. 2010. Development and parasitism by Aphelinus certus (Hymenoptera: Aphelinidae), a parasitoid of soybean aphid, Aphis glycines (Hemiptera: Aphididae). Environmental Entomology, MS# EN-09-312. Accepted, 26 May 2010. In press. Bahlai, C.A., Y. Xue, C. McCreary, A.W. Schaafsma and R.H. Hallett. 2010. Choosing organic pesticides over synthetic pesticides may not effectively mitigate environmental risk in soybeans. PLoS ONE, 5(6): e11250. ** Total Article Views: 3,731 from Jun 22, 2010 (publication date) - Jul 26, 2010; including 451 PDF or XML downloads. Bahlai, C.A., S. Sikkema, R.H. Hallett, J.A. Newman and A.W. Schaafsma. 2010. Modeling distribution and abundance of soybean aphid in soybean fields using measurements from the surrounding landscape. Environmental Entomology, 39: 50-56. 2009 Brunke, A.J., Bahlai, C.A., Sears, M.K. and R.H. Hallett. 2009. Generalist predators (Coleoptera: Carabidae, Staphylinidae) associated with millipede populations in sweet potato and carrot fields, and implications for millipede management. Environmental Entomology, 38: 1106-1116. Xue, Y., Bahlai, C.A., Frewin, A., Sears, M.K., Schaafsma, A.W. and R.H. Hallett. 2009. Predation by Coccinella septempunctata and Harmonia axyridis (Coleoptera: Coccinellidae) on Aphis glycines (Homoptera: Aphididae). Environmental Entomology, 38: 708-714. Bahlai, C.A., Welsman, J.A., Macleod, E.C., Schaafsma, A.W., Hallett, R.H. and M.K. Sears. 2008. Role of visual and olfactory cues from agricultural hedgerows in the orientation behavior of multicoloured Asian lady beetle (Coleoptera: Coccinellidae). Environmental Entomology, 37: 973-979. Bahlai C., Goodfellow S., Stanley-Horn, D.E. and R.H. Hallett. 2006. Endoparasitoid assemblage of the pea leafminer, Liriomyza huidobrensis (Diptera: Agromyzidae), in southern Ontario. Environmental Entomology, 35: 351-357.

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Martin, A.D., Vernon, R.S. and R.H. Hallett. 2005. Influence of colour and trap height on captures of adult pea leafminer, Liriomyza huidobrensis (Blanchard) (Diptera: Agromyzidae), in celery. Journal of the Entomological Society of Ontario, 136: 25-35. Martin, A.D., D.E. Stanley-Horn, and R. H. Hallett. 2005. Adult host preference and larval performance of Liriomyza huidobrensis (Diptera: Agromyzidae) on selected hosts. Environmental Entomology, 34: 1170-1177. Martin, A.D., R. H. Hallett, M. K. Sears, and M. R. McDonald. 2005. Overwintering ability of Liriomyza huidobrensis (Blanchard) (Diptera: Agromyzidae), in southern Ontario, Canada. Environmental Entomology, 34: 743-747.

Heck

Elliot, T.R., Reynolds, W.D. & Heck, R.J. 2010. Use of existing pore models and X-ray computed tomography to predict saturated soil hydraulic conductivity. Geoderma. Soliman, A.S., Abdel-Rahman, M.E. & Heck, R.J. 2010. Comparing time-resolved infrared thermography and X-ray computed tomography in distinguishing soil surface crusts. Geoderma. Quinton,W.L. Elliot,T., Price, J.S, Rezanezhad, F. & Heck, R. 2009. Measuring physical and hydraulic properties of peat from X-ray tomography. Geoderma 153: 269-277. Peck, R. Bailey, J.B., Heck, R.J. & Scaiff, N.T. 2009. X-ray CT scan as an aid to identification and description of a new bivalve species (mollusca) from the Mississippian Bluefield Formation, southeastern West Virginia. J. Paleontology 83: 953-960 Dehvari, A. & Heck, R.J. 2009. Comparison of object-based and pixel based infrared airborne image classification methods using DEM thematic layer. J. Geography & Regional Planning 2: 86-96. Torrance, J.K., Elliot, T., Martin, R. and Heck, R.J. 2008. X-ray computed tomography of frozen soil. Cold Regions Science and Technology 53: 75-82. Taina, I.A., Heck, R.J. & Elliot, T.R. 2008. Application of X-ray computed tomography to soil science: a literature review. Can. J. Soil Sci. 88:1-20 Elliot, T.R. & Heck, R.J. 2007. A comparison of 2D vs. 3D thresholding of X-ray CT imagery. Can. J. Soil Sci. 87: 405-412. Elliot, T.R. & Heck, R.J. 2007. A comparison of optical and CT techniques for void analysis in soil thin sections. Geoderma 141: 60-70. Owliaie, H.R., Abtahi, A. & Heck, R.J. 2006. Pedogenesis and clay mineralogy investigation of soils formed on gypsiferous and calcareous materials, southwestern Iran. Geoderma 134: 62-81.

Hsiang

McLaughlin JM and Hsiang T. 2010. Identification protocol for six Armillaria species from northeastern North America. Can. J. Forest Research 40:536-548. (Accepted 2010/1/8) Cortes-Barco AM, Goodwin PH and Hsiang T. 2010. A comparison of induced resistance activated by benzothiadiazole, (2R,3R)-butanediol and an isoparaffin mixture against anthracnose of Nicotiana benthamiana. Plant Pathology 59:643-653. (Accepted 2010/01/30) Cortes-Barco, A.M., Goodwin, P.H. and Hsiang, T. 2010. Comparison of induced resistance activated by benzothiodiazole, (2R, 3R)-butanediol and an isoparaffin mixture against anthracnose of Nicotiana benthamiana. Plant Pathology 59(4): 643-653. de la Cerda K, Hsiang T, Joshi V. 2010. Waitea circinata from turfgrass in British Columbia. Plant Disease 94:277. (Accepted 2009/11/08).

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Benedetto D, Hsiang T. 2009. Effect of azoxystrobin on dollar spot disease development in creeping bentgrass (Agrostis stolonifera) and Kentucky bluegrass (Poa pratensis). International Turfgrass Society Research Journal 11:151-163 (Accepted 2009/1/10). Jaime M, McDonald MR, Hsiang T. 2008. Effect of Glomus intraradices and cultivar on incidence of Allium white rot on onions grown on organic soils. Canadian Journal of Plant Pathology 30:543-553. (Accepted 2008/8/15). Hao L, Goodwin PH and Hsiang T. 2007. Expression of a metacaspase gene of Nicotiana benthamiana after inoculation with Colletotrichum destructivum or Pseudomonas syringae pv. tomato and the effect of silencing the gene on the host response. Plant Cell Reports 26:1879-1888 (accepted 2007/5/10). Hsiang T, Liao A and Benedetto D. 2007. Sensitivity of Sclerotinia homoeocarpa to demethylation-inhibiting fungicides after a decade of. Plant Pathology 56:500-507. Dean JD, Goodwin PH and Hsiang T. 2005. Induction of glutathione S-transferase genes of Nicotiana benthamiana following infection by Colletotrichum destructivum and C. orbiculare and involvement of one in resistance. J. Experimental Botany 56:1525-1533.

Hunt

No student publications during the assessment period

Lauzon

Wang, Y.T., T.Q. Zhang, Q.C. Hu, S.Tan, I.P. O’Halloran, C.F. Drury, K. Reid, B.L. Ma, B. Ball‐Coelho, J.D. Lauzon, W.D. Reynnolds, and T. Welacky. 2010. Estimation of dissolved reactive phosphorus concentration in surface runoff water from major Ontario soils. Accepted by Journal of Environmental Quality (In Press). Jayasundara, S., C. Wagner‐Riddle, G.W. Parkin, J.D. Lauzon, and M.Z. Fan. 2010. Transformations and losses of swine manure 15N as affected by application timing and soil texture. Canadian Journal of Soil Science. 90:55‐73. Denys, C.J., I.P. O’Halloran, and J.D. Lauzon. 2006. Effect of nitrogen fertilization and topography on soft red winter wheat yield and protein content in two Ontario landscapes. Canadian journal of soil science. 86:729‐739. Gregory, S.D.L., J.D. Lauzon, I.P. O’Halloran, and R.J. Heck. 2006. Predicting soil organic matter content using visible and near‐infrared aerial imagery. Canadian journal of soil science. 86:573‐584. McCoy, A.J., G. Parkin, C. Wagner‐Riddle, Warland, J. Lauzon, P. von Bertoldi, D. Fallow, and S. Jayasundara. 2006. Using automated soil water content and temperature measurement systems to estimate soil water budgets. Canadian Journal of Soil Science. 86: 47‐56. Lauzon, J.D., D. J. Fallow, I. P. O’Halloran, S. D.L. Gregory and A. P. von Bertoldi. 2005. Assessing the temporal stability of spatial patterns in crop yields using combine yield monitor data. Canadian Journal of Soil Science. 85: 439‐451.

Lee

Bajwa, P.K., D. Pinel, V.J.J. Martin, J.T. Trevors & H. Lee (2010) Strain improvement of the pentose-fermenting yeast Pichia stipitis by genome shuffling. Journal of Microbiological Methods 81, 179-186.

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Habash, M.B., B.C.H. Chu, J.T. Trevors & H. Lee (2009) Mutational study of the role of Nterminal amino acid residues in the tetrachlorohydroquinone reductive dehalogenase from Sphingomonas sp. UG30. Research in Microbiology 160, 553-559. Bajwa, P., T. Shireen, F. D'Aoust, D. Pinel, V.J.J. Martin, J.T. Trevors & H. Lee (2009) Mutants of the pentose-fermenting yeast Pichia stipitis with improved tolerance to inhibitors in hardwood spent sulphite liquor. Biotechnology and Bioengineering 104, 892-900. Pokorny, N.J., J.I. Boulter-Bitzer, J.C. Hall, J.T. Trevors & H. Lee (2008) Inhibition of Cryptosporidium parvum infection of a mammalian cell culture by recombinant scFv antibodies. Antonie van Leeuwenhoek Journal of General and Molecular Microbiology 94, 353-364. Chu, B.C.H. & H. Lee (2007) Genetic improvement of Saccharomyces cerevisiae for xylose fermentation. Biotechnology Advances 25, 425-441. Chu, B.C.H. & H. Lee (2006) Investigation of the role of a conserved glycine motif in the Saccharomyces cerevisiae xylose reductase. Current Microbiology 53, 118-123. Jamieson, R.C., D.M. Joy, H. Lee, R. Kostaschuk & R. Gordon (2005) Transport and deposition of sediment-associated Escherichia coli in natural streams. Water Research 39, 2665- 2675. Moore, M., J.T. Trevors, H. Lee & K.T. Leung (2005) Stress survival responses of a carbon- starved p-nitrophenol-mineralizing Moraxella strain. Canadian Journal of Microbiology 51, 223-229. Jamieson, R.C., D.M. Joy, H. Lee, R. Kostaschuk & R.J. Gordon (2005) Resuspension of sediment-associated Escherichia coli in a natural stream. Journal of Environmental Quality 34, 581-589. Shewfelt, K., H. Lee & R.G. Zytner (2005) Optimization of nitrogen for bioventing of gasoline contaminated soil. Journal of Environmental Engineering and Science 4, 29-42.

Marshall

Marshall, S.A., M. Buck, J.H. Skevington and D. Grimaldi. 2009. A revision of the family Syringogastridae. Zootaxa 196: 1-80. Buck, M.., and S.A. Marshall 2009. Revision of New World Leptocera Olivier (Diptera, Sphaeroceridae). Zootaxa 2039: 1-139. Buck, M., S.A. Marshall, and D.B. Cheung. 2008. Identification Atlas of the Vespidae (Hymenoptera, Aculeata) of the northeastern Nearctic region. The Biological Survey of Canada Journal of Identification 5: 1-492. Kits, J., S.A. Marshall., and N. Evenhuis. 2008. The Bee (Diptera: Bombyliidae) of Ontario, with a Key to the Species of Eastern Canada. Canadian Journal of Arthropod Identification.6: 1-52. Lonsdale, O. & S.A. Marshall. 2008. Synonymy within Clusia and description of the new genus Melanoclusia. Annals of the Entomological Society of America 101: 327-330. Lonsdale, O. & S.A. Marshall. 2008. Revision of the genus Phylloclusia (Diptera: ). The Canadian Entomologist. 139:778-792. Lonsdale, O. & S.A. Marshall. 2008. The Clusiidae (Diptera: Schizophora) of Fiji, with redefinition of Heteromeringia Czerny and synonymy of Tranomeringia Sasakawa. Fiji xi: 3-20. Klymko, J. and S.A. Marshall. 2008. A review of the Nearctic Lonchopteridae. Canadian Entomologist 140: 649-673. Lonsdale, O. & S.A. Marshall. 2008. Revision of the temperate South American genus Apiochaeta Czerny, 1903, including Alloclusia Hendel, 1917 new synonym (Diptera: Clusiidae). Zootaxa 1944: 1-33.

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Buck, M.; Bergeron, M.D. & S.A. Marshall. 2007. First New World record of Discomyza incurve (Fallén) from southern Ontario, with a key to New World Discomyza Meigen (Diptera, Ephydridae). – Journal of the Entomological Society of Ontario 137 (2006): 111-115. Lonsdale, O. & S.A. Marshall. 2007. Revision of the North American Sobarocephala (Diptera: Clusiidae, Sobarocephalinae). Journal of the Entomological Society of Ontario. 138: 65- 106. Lonsdale, O. & S.A. Marshall. 2007. Revision of the New World Heteromeringia (Diptera: Clusiidae: Clusiodinae). Beiträge zur Entomologie. 57: 37-80. Lonsdale, O. & S.A. Marshall. 2007. Redefinition of the genera Clusiodes and Hendelia (Diptera: Clusiidae, Clusiodinae), with a review of Clusiodes. Studia Dipterologica 14: 117- 159. Marshall, S.A., M. Buck and O. Lonsdale. 2007. Lepidosina, a new genus of New World Limosininae (Diptera: Sphaeroceridae). European Journal of Entomology 104: 573-599. Buck, M. and S.A. Marshall. 2006. Revision of New World Loxocera (Diptera: Psilidae), with phylogenetic redefinition of Holarctic subgenera and species groups. European Journal of Entomology 103: 193–219. Buck, M and S.A. Marshall. 2006. The identity of Pseudopsila, description of a new subgenus of 3 Psila, and redefinition of Psila sensu lato (Diptera: Psilidae). European Journal of Entomology 103: 183- 192. Buck, M. and S.A. Marshall. 2006. Revision of the Neotropical family Inbiomyiidae (Diptera, Schizophora). Contributions in Science 512: 1-30. Buck, M., S.M. Paiero, and S.A. Marshall.2006. New records of native and introduced aculeate Hymenoptera fromOntario, with keys to eastern Canadian species of Cerceris (Crabronidae) and eastern Nearactic species of Chelostoma (Megachilidae). Journal of the Entomological Society of Ontario 136 (2005): 37-52. Buck, M. & Marshall, S.A. 2006: Enigmocarnus chloropiformis gen. et sp. nov., and the parallel evolution of protandrial symmetry in Carnidae (Diptera). – Annals of the Entomological Society of America: 9-18 Cheung, D. K. B, S. A. Marshall, and D. W. Webb, 2006. Mecoptera of Ontario. Canadian Journal of Arthropod Identification 1: 1-13. Lonsdale, O. and S. A. Marshall. 2006. Redefinition of the Clusiinae and Clusiodinae, description of the new subfamily Sobarocephalinae, revision of the genus Chaetoclusia and a description of Procerosoma gen. n. (Diptera: Clusiidae). European Journal of Entomology 103(1): 163–182. Lonsdale, O. & S.A. Marshall. 2006. Revision of the New World Craspedochaeta Czerny. Zootaxa 1291: 1-101. Marshall, S. A., S.M. Paiero, and O. Lonsdale. 2006. New records of Orthoptera from Canada and Ontario Journal of the Entomological Society of Ontario 135 ( 2005): 102-108. Marshall , S.A., S.M. Paiero, M. Buck. 2005. Buprestid sampling at nests of Cerceris fumipennis (Hymenoptera, Crabronidae) in southern Ontario, with new Canadian records of Buprestidae (Coleoptera).Canadian Entomologist 137: 416-419 Buck, M.; Paiero, S.M. & Marshall, S.A. 2005: New records of native and introduced aculeate Hymenoptera from Ontario, with keys to eastern Canadian species of Cerceris (Crabronidae) and eastern Nearctic species of Chelostoma (Megachilidae). – Journal of the Entomological Society of Ontario 136: 37-52:

McBride

No student publications during the assessment period

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Newman

Hoover, J.K. & J.A. Newman. 2004. Tritrophic interactions in the context of climate change: a model of grasses, aphids, and their prasitiods. Global Change Biology, 10:1197--‐1208. Bell, T., D Ager, JI Song, J.A. Newman, I.P Thompson, A.K. Lilley & C.J. van der Gast. 2005. Larger islands house more diverse bacterial communities. Science 308: 1804. Bell, T., J.A. Newman, I.P Thompson, A.K. Lilley & C.J. van der Gast. 2005. Bacteria and island biogeography: response. Science, 309:1998--‐1999. Bell, T., J.A. Newman, B.W. Silverman, S.L. Turner & A.K. Lilley. 2005. The contribution of species richness and composition to bacterial services. Nature 436: 1157-1160. Hunt, M.G. & J.A. Newman. 2005. Reduced herbivore resistance from a novel grass-endophyte association. J. of Appl. Ecol. 42: 762-769. Hunt, M.G., S. Rasmussen, P. Newton, A.J. Parsons, J.A. Newman. 2005. Near-term impacts of elevated CO2, nitrogen and fungal endophyte infection on Lolium perenne L.: growth, chemical composition and alkaloid production. Plant, Cell and Environment, 28:1345-- ‐1354. Mika, A.M., R.M. Weiss, O. Olfert, R.H. Hallett & J.A. Newman. 2008. Will climate change be beneficial or detrimental to Swede midge in North America? Contrasting predictions using climate projections from different general circulation models. Global Change Biology, 14:1721--‐1733. Antunes, P., J. Miller, L. Carvalho, J. Klironomos & J.A. Newman. 2008. Even after death, tall fescue’s endophytic fungus affects the relationship between Bromus inermis and Glomus intraradices. Funct, Ecol. 22: 912-918. Ryan, G., S. Rasmussen, A.J. Parsons & J.A. Newman. 2009. Can optimality models and an optimality research program help us understand some plant-fungal relationships? Fungal Ecology, 1:115--‐123. Bell, T., A.K. Lilley, A. Hector, B. Schmid, L. King, & J.A. Newman. 2009. A linear model framework for designing and analyzing biodiversity-ecosystem function experiments. The American Naturalist, 174:836–849.

O’Halloran

Student publications listed under Lauzon

Otis

Nicole McKenzie, Blair Helson, Dean Thompson, Gard Otis, John McFarlane, Teresa Buscarini, and Joe Meating. (2010). Azadirachtin: an effective systemic insecticide for control of the Emerald Ash Borer, Agrilus planipennis. Journal of Economic Entomology 103: 708-717. Brewster, A. L. E. and G. W. Otis. (2009). A protocol for evaluating cost-effectiveness of butterflies in live exhibits. Journal of Economic Entomology 102: 105-114. Robson, L., A. L. E. Brewster, and G. W. Otis. (2009). Cost-effectiveness of Philippine butterfly species used in live exhibits: an assessment of longevity, encounter rate and behaviour. Journal of Research on the Lepidoptera 41: 17-23. (listed as published in 2008 P&T) Mattila, H.R., and G.W. Otis. 2007. Dwindling pollen resources trigger the transition to broodless populations of long-lived honey bees each autumn. Ecological Entomology32: 496-505. Mattila, H.R., and G.W. Otis (2007) Manipulating pollen supply in honey bee colonies during the fall does not affect the performance of winter bees. Canadian Entomologist 139: 554–563.

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Mattila, H.R., and G.W. Otis (2006). The effects of pollen availability during larval development on the behaviour and physiology of spring-reared honey bee workers. Apidologie 37: 533- 546. Mattila, H.R., and G.W. Otis (2006). Influence of pollen diet in spring on development of honey bee (Hymenoptera: Apidae) colonies. Journal of Economic Entomology 99: 604-613. Mattila, H.R., and G.W. Otis. 2006. Effects of pollen availability and Nosema infection during the spring on division of labor and survival of worker honey bees (Hymenoptera: Apidae). Environmental Entomology 35: 708-717. Otis, G.W., B. Locke, N.G. McKenzie, D. Cheung, E. MacLeod, P.W. Careless, and A. Kwoon. 2006. Local enhancement in mud-puddling swallowtail butterflies (Battus philenor and Papilio glaucus). J. of Insect Behavior 19: 685-698.

Parkin

Jayasundara, S. C. Wagner-Riddle, G. Parkin, P. von Bertoldi, J. Warland, B. Kay and P. Voroney. 2007. Minimizing nitrogen losses from a corn–soybean–winter wheat rotation with best management practices. Nutrient Cycling in Agroecosystems. http://springerlink.metapress.com/ content/1573-0867/?k=wagner-riddle. Gupta, N., Rudra, R.P. and Parkin, G. 2006. Analysis of spatial variability of hydraulic conductivity at field scale. Canadian Biosystems Engineering/Legénie des biosystèmes au Canada 48: 1.55 - 1.62. Bevan, M.J., Endres, A.L., Rudolph, D.L., and Parkin, G.W. 2005. A field-scale study of pumping-induced drainage and recovery in an unconfined aquifer. Journal of Hydrology, 315, pp. 52-70.

Rennie

No student publications during the assessment period

Ritter

Arbuckle, T., Dana Bruce, Len Ritter and J.C. Hall . 2006. Indirect Sources of Herbicide Exposure for Families on Ontario Farms. J. Exp. Analysis Environ. Epidemiology. 16, (1), 98-104, 2006.

Schmidt

No student publications during the assessment period

Scott-Dupree

Gradish, A., C. Scott-Dupree, L. Shipp, R. Harris and G. Ferguson. 2010. Effect of reduced risk pesticides for use in greenhouse vegetable production on Bombus impatiens (Hymenoptera: Apidae). Pest Management Science 66(2): 142-146. Scott-Dupree, C.D., L. Conroy and C.R. Harris. 2009. Impact of Currently Used or Potentially Useful Insecticides for Canola Agro-ecosystems to Bombus impatiens Cresson (Hymenoptera: Apidae), Megachile rotundata Fabricius (Hymentoptera: Megachilidae) and Osmia lignaria Cresson (Hymenoptera: Megachilidae). Journal of Economic Entomology 102 (1): 177-182.

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Conroy, L., C.D. Scott-Dupree, C.R. Harris, G. Murphy and A.B. Broadbent. 2008. Susceptibility of two strains of American serpentine leafminer (Liriomyza trifoli (Burgess)) to registered and reduced risk insecticides. J. Entomological Society of Ontario 139: 41- 47. Scott-Dupree, C.D., C.R. Harris, M. Moineddin and J. Leboeuf. 2008. Flight activity and susceptibility to insecticides of variegated cutworm, Peridroma saucia (Hübner), attacking field tomatoes in southwestern Ontario. J. Entomological Society of Ontario 139: 19-25. MacIntyre Allen, J.K., J.H. Tolman, C.D. Scott-Dupree and C.R. Harris. 2007. Confirmation by fluorescent tracer of coverage of onion leaves for control of onion thrips using selected nozzles, surfactants and spray volumes. Crop Protection 26: 1625-1633. Cutler, G.C. and C.D. Scott-Dupree, C.D. 2007. Novaluron: Prospects and Limitations in Insect Pest Management. Pest Technology 1: 38-46. Cutler, G.C. and C.D. Scott-Dupree, C.D. 2007. Exposure to clothianidin seed-treated canola has no long-term impact on honey bees. Journal of Economic Entomology 100: 765-772. Cutler, G.C., C.D. Scott-Dupree, J.H. Tolman and C.R. Harris. 2007. Field efficacy of novaluron for control of Colorado potato beetle (Coleoptera: Chrysomelidae) on potato. Crop Protection 26: 760-767. Jones, T., J.L. Shipp, C.D. Scott-Dupree and C.R. Harris. 2006. Influence of greenhouse microclimate on Neoseiulus (Amblyseius) cucumberis (Acari: Phytoseiidae) predation on Frankliniella occidentalis (Thysanoptera: Thripidae) and oviposition on greenhouse cucumber. J. Ent. Soc. Ont. 136: 71-83. Jandricic, S., C.D. Scott-Dupree, A.B. Broadbent, C.R. Harris and G. Murphy. 2006. Compatibility of Atheta coriaria Kraatz with other biological control agents and reduced risk pesticides used in greenhouse floriculture integrated pest management programs for fungus gnats. Can. Entomol. 138: 712-722. Cutler, G.C., C.D. Scott-Dupree, J.H. Tolman and C.R. Harris. 2006. Toxicity of novaluron to the non-target predatory bug Podisus maculiventris (Heteroptera: Pentatomidae). Biological Control 38: 196-204. Cutler, G.C., J.H. Tolman, C.D. Scott-Dupree and C.R. Harris. 2005. Resistance potential of Colorado potato beetle (Coleoptera: Chrysomelidae) to novaluron. J. Economic Entomology 98: 1685-1693. MacIntyre Allen, J.K., C.D. Scott-Dupree, J.H. Tolman and C.R. Harris. 2005. Evaluation of sampling methodology for determining the population dynamics of onion thrips, Thrips tabaci Lindeman (Thysanoptera: Thripidae), in Ontario onions. J. Economic Entomology 98: 2272-2281. Bailey, J.C., C.D. Scott-Dupree, C.R. Harris, J.H. Tolman and B.J. Harris. 2005. Relative impact on foraging honey bees of integrated strategies for control of European corn borer, Ostrinia nubilalis Hübner, attacking sweet corn. Apidologie 36: 623-633. Bailey, J.C., C.D. Scott-Dupree, J.H. Tolman, C.R. Harris and B.J. Harris. 2005. Alternative agents for control of European Corn Borer and Corn Flea Beetle on Sweet Corn. J. Vegetable Science 11(1): 27-46. Westerveld, S.M., M.R. McDonald, C.D. Scott-Dupree and A.W. McKeown. 2005. Assessment of a nitrate meter for nitrogen tests in mineral and organic soils. J. Vegetable Science 11(3): 17-32. Cutler, G.C., C.D. Scott-Dupree, J.H. Tolman and C.R. Harris. 2005. Acute and sublethal toxicity of novaluron, a novel chitin synthesis inhibitor, to Leptinotarsa decemlineata (Coleoptera: Chrysomelidae). Pest Management Science 61: 1060-1068. MacIntyre Allen, J.K., C.D. Scott-Dupree, J.H. Tolman and C.R. Harris. 2005. Resistance of Thrips tabaci to pyrethroid and organophosphorus insecticides in Ontario, Canada. Pest Management Science 61: 809-815.

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Jones, T., C.D. Scott-Dupree, C.R. Harris, L. Shipp and B. Harris. 2005. The efficacy of spinosad against the western flower thrips, Frankliniella occidentalis, and its impact on associated biological control agents on greenhouse cucumbers in southern Ontario. Pest Management Science 61: 179-185.

Sibley

Van Geest, J, Poirier, D., Solomon, K.R., and P.K. Sibley. Laboratory methods used for measuring bioaccumulation of sediment-associated contaminants in freshwater organisms: A critical review. Environ. Toxicol. Chem. (In Press, galleys returned). Van Geest, J, Poirier, D., Solomon, K.R., and P.K. Sibley. The effect of organism density on the bioaccumulation of contaminants from sediment in three aquatic test species: A case for standardizing to sediment organic carbon. Arch. Environ. Contam. Toxicol. (In Press; galleys returned). Muto, E., Kreutzweiser, D.P., and P.K. Sibley. Over-winter decomposition and associated macroinvertebrate communities of three deciduous leaf species in boreal shield forest streams of Ontario, Canada. Hydrobiologia (In Press, galleys returned 2010). Philips (MacDonald), M., Dinglasan-Panlilio, M.J.A., Mabury, S.A. Solomon. K.R., and P.K. Sibley. 2009. Chronic toxicity of fluorotelomer acids to Daphnia magna and Chironomus dilutus. Environ. Toxicol. Chem.29:1123-1131. Dussault, E.B., Balakrishnan, V.K., Sverko, E., Solomon, K.R., and Paul K. Sibley. 2009. Bioaccumulation of ethinylestradiol from sediments by Chironomus tentans and Hyalella azteca. Ecotoxicol Environ Safety 72: 1635-1641. Muto, E., Kreutzweiser, D.P., and P.K. Sibley. 2009. The influence of riparian forest composition and structure on leaf litter inputs to boreal shield streams. Can. J. For. Res. 39: 917-927. Dussault, E., Balakrishnan, V., Solomon, K.R., and P.K. Sibley. 2009. Matrix effects and mass spectrometric determinations for four pharmaceutical and personal care products in water, sediment, and biota. Can. J. Chem. 87(5): 662-672. Dussault, E.B., Balakrishnan, V.K., Sverko, E., Solomon, K.R., and P.K. Sibley. 2008 Chronic Toxicity of the Synthetic Hormone 17ß-Ethinylestradiol to Chironomus tentans and Hyalella Hillis, D.G., Antunes, P. Klironomos, J., Solomon, K.R., and P.K. Sibley. 2008. Structural responses of Daucus carota root organ cultures and the arbuscular mycorrhizal fungi, Glomus intraradices, to 12 pharmaceuticals. Chemosphere 73(3): 344-352. Dussault, E., Balakrishnan, V., Solomon, K.R., and P.K. Sibley. 2008. Aquatic toxicity of four pharmaceuticals to the amphipod Hyalella azteca and the midge Chironomus tentans. Environ. Toxicol. Chem.27: 425-432. MacDonald, M.M., Dinglasan, J., Mabury, S.M., Solomon, K.R., and P.K. Sibley. 2007. Acute toxicity of fluorotelomer acids to Daphnia magna, Chironomus tentans, and Lemna gibba. Environ. Sci. Technol. 41: 7159-7163. MacDonald, M.M., Warne, A., Mabury. S.M., and K.R. Solomon, Sibley, P.K. 2004. Toxicity of perfluorooctanesulfonic acid (PFOS) to Chironomus tentans under field and laboratory conditions. Environ. Toxicol. Chem. 23 (9): 2116-2123.

Trevors

Boulter-Biltzer, J., H. Lee and J. T. Trevors. 2010. Single chain variable fragment antibodies selected by phage display against the sporozite surface antigen S16 of Cryptosporidium parvum. Experimental Parasitology. 15:124-129.

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Bajwa, P. K., D. Pinel, V. J. J. Martin, J. T. Trevors and H. Lee. 2010. Strain improvement of the pentose-fermenting yeast Pichia stipitis by genome shuffling. J.Microbiol. Meths. 81:179-186. Trevors, J. T., P. G. Kevan and L. Tam. 2010. Microbial diversity across a Canadian sub-arctic, isostatic, rebounding, soil transect. Polar Sci. 4:81-91. Miller, M, N,. B. J. Zebarth, C. E. Dandie, D. L. Burton, C. Goyer and J. T. Trevors. 2009. Denitrifier community dynamics in soil aggregates under permanent grassland and arable cropping systems. SSSAJ. 73:1843-1851. Boulter-Bitzer, J. I., H. Lee and J. T. Trevors. 2009. Single-chain variable fragment antibodies selected by phage display against the sporozoite surface antigen S16 of Cryptosporidium parvum.2008. Exp. Parasitology (in press). Saleh-Lakha, S., K. E. Shannon S. L. Henderson, C. Goyer, J. T. Trevors, B. J. Zebarth and D. L. Burton. 2008. Nitric oxide reductase gene expression and nitrous oxide production in nitrate-grown Pseudomonas mandelii. Appl. Environ. Microbiol. 74: 6876- 6879. Saleh-Lakha, S., K. E. Shannon, S. L. Henderson, C. Goyer, J. T. Trevors, B. J. Zebarth and D. L. Burton. 2009. Effect of nitrate and acetylene on nirS, cnorB and nosZ expression and denitrification activity in Pseudomonas mandelii. Appl. Environ. Micbiol. 75:5082-5087. Saleh-Lakha, S., K. E. Shannon, S. L. Henderson, C. Goyer, J. T. Trevors, B. J. Zebarth and D. Schneider, K. D., P. Van Straaten, R. Mira de Orduña, S Glasauer, J. T. Trevors, D. Fallow, and P. Smith. 2009. Solubilization of phosphate rock using Aspergillus niger: A comparison of biological treatment methods on the mineral dissolution of three phosphate rocks. J. Appl. Microbiol. 108: 366-374. Powell, J. R. David J. Levy-Booth, Robert H. Gulden, Wendy L. Asbil, Rachel G. Campbell, Kari E. Dunfield, Allan S. Hamill, Miranda M. Hart, Sylvain Lerat, Robert E. Nurse, K. Peter Pauls, Peter H. Sikkema, Clarence J. Swanton, Jack T. Trevors, and John N. Klironomos 2009. Effects of genetically-modified herbicide-tolerant crops and their management on soil food web properties and crop litter decomposition. J Appl. Ecol. 46:388-396. Pokorny, N. J., J. I. Boulter-Bitzer, J. C. Hall, H. Lee, H., J. T. Trevors. 2008. Inhibition of Cryptosporidium parvum infection of a mammalian cell culture by recombinant scFv antibodies. Antonie Van Leeuwenhoek. 94:353-364. Miller, M.N., B. J. Zebarth, C. E. Dandie, D. L. Burton, C. Goyer and J. T. Trevors. 2009. Effect of liquid manure on soil denitrifier abundance, denitrification and nitrous oxide emissions. Soil Sci. Soc. J. Amer. 73:760-768. Boulter-Bitzer, J. I., H. Lee and J. T. Trevors. 2009. Single-chain variable fragment antibodies selected by phage display against the oocyst and sporozite surface antigen P23 of Cryptosporidium parvum. J. Parasitol. 95:75-81. Miller, M. N., B. J. Zebarth, C. E. Dandie, D. L. Burton and J. T. Trevors. 2008. Crop residue influence on denitrification, N2O emissions and denitrifier community abundance in soil. Soil. Biol. Biochem. 40:2553-2562. Gulden, R. H., S. Lerat, R. E. Blacksahw, J. R. Powell, D. Levy-Booth, R. Campbell, M. M. Hart, J. T. Trevors, K. P. Pauls, J. N. Klironomos, C. J. Swanton. 2008. Factors affecting the presence of plant DNA in the soil environment in corn and soybean rotations. Weed Sci. 56:767-774. Miller, M. N., B. J. Zebarth, C. E. Dandie, D. L. Burton and J. T. Trevors. 2008. Crop residue influence on denitrification, N2O emissions and denitrifier community abundance in soil. Soil. Biol. Biochem. 40:2553-2562. Dandie, C.E., M. N. Miller, D. L., Burton, B. J. , Zebarth, J. T. Trevors, and C. Goyer. 2007. Nitric-oxide reductase-targeted Real-Time PCR quantification of denitrifier populations in soil. Appl. Environ. Microbiol. 73:4250-4258.

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Shannon, K. D.Y. Lee, J. T. Trevors and L. Beaudette. 2007. Application of real-time quantitative PCR for the detection of selected bacterial pathogens during municipal wastewater treatment Sci. Total Environ. 382:121-129. Boulter-Blitzer, J. I., J. T. Trevors and G. J. Boland. 2006. Polyphasic approach for assessing maturity and stability in compost intended for suppression of plant. Appl. Soil Ecol. 34:65- 81. Pokorny, N., M. M. Hart, L. Storey, J. Boulter, H. Lee and J. T. Trevors. 2005. Hypobaric bacteriology: growth, cytoplasmic membrane polarization and total cellular fatty acids responses of Escherichia coli and Bacillus subtilis. Int. J. Astrobiol. 4:187- 193. Kirk, J.l., P. Moutoglis, J. N. Klironomos, H. Lee and J. T. Trevors. 2005. Toxicity of diesel fuel to germination, growth and colonization of Glomus intraradices in soil and in vitro transformed carrot root cultures. Plant Soil. 270: 23-30. Denich, T. J., L. A. Beaudette, H. Lee and J. T. Trevors. 2005. Fluorescent methods to study DNA, RNA, proteins and cytoplasmic membrane polarization in the pentachlorophenol- mineralizing bacterium Sphingomonas sp. UG30 during nutrient starvation in water. J. Fluorescence. 15:143-151. Phillips, T. M., A. G. Seech , H. Lee and J. T. Trevors. 2006. Full-scale in- situ bioremediation of hexachlorocyclohexane contaminated soil. J. Chem. Technol. Biotechnol. 81: 289-298. Kirk, J.L., J. N. Klironomos, H. Lee and J. T. Trevors. 2005. The effects of perennial ryegrass and alfalfa on microbial abundance and diversity in petroleum contaminated soil. Env. Pollut. 133: 455-465.

Van Eerd

Van Eerd, L.L. and K.A. O’Reilly. 2009. Yield, Nitrogen Dynamics, and Fertilizer Use Efficiency in Machine-Harvested Cucumber (Cucumis sativus L.). HortScience 44(6):1712-1718.

Voroney

Arcand, Melissa M., Lynch, Derek H., Voroney, R.Paul and van Straaten, Peter. 2010. Residues from a buckwheat (Fagopyrum esculentum) green manure crop grown with phosphate rocks influence bioavailability of soil phosphorus. Canadian Journal of Soil Science. 90(2): 257-266. Rashid, M.T., Voroney, R. P. and Khalid, M. 2010. Application of food industrial waste to agricultural soils mitigates greenhouse gas emissions. Bioresource Technology. 101:485- 49010. 1016/j.biortech.2009.06.113 Michitsch, R., Chong, C., Holbein, B., Voroney, R.P. and Liu, H.-W. 2008. Fertigation of cool season turfgrass species with anaerobic digestate wastewater. Floriculture and Ornamental Biotechnology 2(2): 32-38. Roberts, C.J., Lynch, D.H., Voroney, R.P., Martin, R.C. and Juurlink, S.D. 2008. Nutrient budgets of Ontario organic dairy farms. Canadian Journal of Soil Science 88:107-114. Murage, Evah W., and Voroney, R. Paul. 2008. Distribution of organic carbon in the stable soil humic fractions as affected by tillage management. Canadian Journal of Soil Science 88:99-106. Price, G.W. and Voroney, R.P. 2008. Response to annual applications of de-inked papermill biosolids by field earthworms on three agricultural soils. Applied Soil Ecology 38(3): 230- 238. Murage, Evah W., and Voroney, R. Paul. 2007. Modification of the original chloroform fumigation extraction technique to allow measurement of 13C of soil microbial biomass carbon. Soil Biology & Biochemistry 39:1724-1729.

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Price, G.W. and Voroney, R.P. 2007. Papermill biosolid effects on soil physical and chemical properties. Journal of Environmental Quality 36:1704-1714. Jayasundara, S., Wagner-Riddle, C., Parkin, G., von Bertoldi, P., Warland, J., Kay, B., and Murage, Evah W., Voroney, R.P., Kay, B.D., Beyaert, R.P. and Deen, B. 2007. Dynamics and turnover of soil organic matter and its density fractions as affected by tillage. Soil Science Society America Journal 71: 1363-1370. Murage, Evah W., Voroney, R. Paul, and Beyaert, R.P. 2007. Turnover of carbon in the free light fraction with and without charcoal as determined using the 13C natural abundance method. Geoderma 138:133-143. Michitsch, R.C., C. Chong, R.P. Voroney, B.E. Holbein, and Hua-Wu Liu. 2007. Use of wastewater and compost extracts as nutrient sources for growing nursery and turfgrass species. Journal of Environmental Quality 36:1031-1041. Oelbermann, M., and R.P. Voroney. 2007. Carbon and nitrogen in a temperate agroforestry system: using stable isotopes as a tool to understand soil dynamics. Ecological Engineering 29:342-349. Arcand, M.M., Lynch, D.H., Voroney, R.P. and van Straaten, P. 2006. Improving green manure quality with phosphate rocks in Ontario, Canada. Aspects of Applied Biology 79:283-287. Oelbermann, M., R.P. Voroney, D.C.L. Kass, and A.M. Schlönvoigt. 2006. Soil carbon and nitrogen dynamics using stable isotopes in 19- and 10- year old tropical agroforestry systems. Geoderma 130:356-367. Lynch, D., R.P. Voroney, and P. R. Warman. 2006. Use of 13C and 15N natural abundance techniques to characterize carbon and nitrogen dynamics in composting and in compost- amended soils. Soil Biology & Biochemistry 38:103-114. Rashid, T., and R.P. Voroney. 2005. Nitrogen fertilizer recommendations for corn grown on soils amended with oily food waste. Journal of Environmental Quality 34:2045-2051. Lynch, D., R.P. Voroney, and P. R. Warman. 2005. Soil physical properties and organic matter fractions under forages receiving composts, manure or fertilizer. Compost Science & Utilization 13(4):252-261. Wen, G., R.P. Voroney, S. Inanaga and P. An. 2005. Modification and application of a soil ATP determination method. Soil Biology & Biochemistry 37:1999-2006. Rashid, T., and R.P. Voroney. 2005. Field-scale application of oily food waste and nitrogen fertilizer requirements of corn at different landscape positions. Journal of Environmental Quality 34:963-969. Rashid, T., R.P. Voroney and G. Parkin. 2005. Predicting nitrogen fertilizer requirements for corn by chlorophyll meter under different N availability conditions. Canadian Journal of Soil Science 85:149-159. Jarecki, M.K., C. Chong, and R.P. Voroney. 2005. Evaluation of compost leachates for plant growth in hydroponic culture. Journal of Plant Nutrition 28:651-667. Oelbermann, M., R.P. Voroney, A.M. Schlönvoigt , and D.C.L. Kass. 2005. Erythrina poeppigiana leaf decomposition in a 3, 9 and 18-year-old alleycropping system in Costa Rica. Agroforestry Systems 63:23-28. Derry, D. D., R. P. Voroney, and J. A. Briceño. 2005. Long-term effects of short-fallow frijol tapado on soil phosphorus pools in Costa Rica. Agriculture, Ecosystems and Environment 110:91-103. Oelbermann, M., R.P. Voroney, D.C.L. Kass, and A.M. Schlönvoigt. 2005. Above- and below- ground carbon inputs in 19-, 10- and 4-year-old Costa Rican Alley cropping systems. Agriculture, Ecosystems and Environment 105:163-172.

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Wagner-Riddle

Park, K.H., C. Wagner-Riddle, and R. J. Gordon. 2010. Comparing methane fluxes from stored liquid manure using micrometeorological mass balance and floating chamber methods. Agric. For. Meteor. 150 :175–181. Wagner-Riddle, C., Q.C. Hu, E. van Bochove, and S. Jayasundara. 2008. Linking nitrous oxide flux during spring thaw to nitrate denitrification in the soil profile. Soil Sci. Soc. Am. J. 72: 908-916. Furon, A, C. Wagner-Riddle, C.R. Smith, and J.S. Warland. 2008. Wavelet analysis of wintertime and spring thaw CO2 and N2O fluxes from agricultural fields. Agr. For. Meteorology J. 148: 1305-1317. (NSERC, BIOCAP and OMAF funding) Furon, A.C., J.S. Warland and C. Wagner-Riddle. 2007. Analysis of the relationship between bulk and leaf surface resistances using numerical simulations. Agron. J. 99: 1483- 1491. Jayasundara, S., C. Wagner-Riddle, G. Parkin, P. von Bertoldi, J. Warland, B. Kay and Voroney. 2007. Minimizing Nitrogen Losses from a Corn-Soybean-Winter Wheat Rotation with Best Management Practices. Nutr. Cycl. Agroecosystems 79: 141 - 159. Wagner-Riddle, C., A. Furon, A., N.L. McLaughlin, I. Lee, J. Barbeau, S. Jayasundara, G. Parkin, P. von Bertoldi, J. Warland. 2007. Intensive measurement of nitrous oxide emissions from a corn-soybean-winter wheat rotation under two contrasting management systems over 5 years. Global Change Biol. 13: 1722-1736. Hu, Q. C., van Bochove, E., Warland, J., Kay, B., Wagner-Riddle, C. 2006. New method to simulate soil freezing and thawing cycles for studying nitrous oxide flux. Soil Sci. Soc. Am. J. 70: 2106-2113. Pattey, E., G. Edwards, I.B. Strachan, R.L. Desjardins, S. Kaharabata and C. Wagner Riddle. 2006. Towards standards for measuring greenhouse gas fluxes from agricultural fields using instrumented towers. Can. J. Soil Sci. 86: 373–400. Wagner-Riddle, C., K.H. Park, and G.W. Thurtell. 2006. A micrometeorological mass balance approach for greenhouse gas flux measurements from stored animal manure. Agr. For. Meteorol. 136: 175-187. Kebreab, E., K. Clark, C. Wagner-Riddle and J. France. 2006. Methane and nitrous oxide emissions from Canadian animal agriculture: a review. Can. J. Animal Sci. 86: 135–158. Park, K. H., A.G. Thompson, M. Marinier, K. Clark and C. Wagner-Riddle. 2006. Greenhouse gas emissions from stored liquid swine manure in a cold climate. Atmospheric Environment 40 (4): 618-627. McCoy, A.J., G. Parkin, C. Wagner-Riddle, J.S. Warland, J. Lauzon, P. von Bertoldi, and S. Jayasundara. 2006. Using automated soil water content and temperature measurement to estimate soil water budgets. Can. J. Soil Sci. 86: 47-56.

Warland

Alavi, N., A.A. Berg, J.S. Warland, G. Parkin, D. Verseghy, and P. Bartlett. 2010. ‘Evaluating the Impact of Assimilating Soil Moisture Variability Data on Latent Heat Flux Estimation in a Land Surface Model’ Canadian Water Resources Journal Vol. 35(2): 157–172 Vanos, J., Warland J, Gillespie, T, and P. Kenny 2010 Review of the physiology of human thermal comfort while exercising in urban landscapes and implications for bioclimatic design INTERNATIONAL JOURNAL OF BIOMETEOROLOGY 54 319--334 Wagner-Riddle, C., J. Rapai, J. Warland and A. Furon. 2009. `Nitrous oxide fluxes related to soil freeze and thaw periods identified using heat pulse probes' Canadian Journal of Soil Science accepted Oct. 6, 2009.

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Kenny, K., Warland, J., Brown M., and T. Gillespie 2009. Part A: Assessing the performance of the COMFA outdoor thermal comfort model on subjects performing physical activity INTERNATIONAL JOURNAL OF BIOMETEOROLOGY 53 415--428 Kenny, K. Warland, J., Brown, M. and T. Gillespie 2009. Part B: Revisions to the COMFA outdoor thermal comfort model for application to subjects performing physical activity INTERNATIONAL JOURNAL OF BIOMETEOROLOGY 53 429—441. Alavi, N., Warland, J. And Begg, A.A., 2006. ‘Gap filling evapotranspiration measurements: evaluating a Kalman filtering approach’. Agricultural and Forest Meteorology. 141:57-66.

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REPORT OF THE APPRAISAL COMMITTEE

to the

ONTARIO COUNCIL ON GRADUATE STUDIES

June 30, 2011

STANDARD APPRAISAL

UNIVERSITY OF GUELPH - MSc/MES/GDip (Type 3)/PhD, ENVIRONMENTAL SCIENCES

At its meeting of June 27, 2011, the Appraisal Committee decided to recommend to Council that:

(a) The proposed MSc/MES/GDip (Type 3)/PhD program in Environmental Sciences at the University of Guelph be APPROVED TO COMMENCE. (b) The following fields be approved:

MSc/MES – NONE

PhD: Earth and Atmospheric Sciences Ecosystem Science and Biodiversity Plant & Environmental Health

The above recommendation is based on the Committee’s consideration of the University’s written submission, the consultants’ reports and the University response.

Consultants: Dr. John H. Rogers Dr. Roberta Fulthorpe Department of Forestry and Natural Resources Division of Physical and Environmental Sciences Clemson University University of Toronto at Scarborough Clemson, SC 29634 Scarborough, Ontario U.S.A.

Ronald Barron Chair

DW/sd

An affiliate of the Council of Ontario Universities 180 Dundas Street West, Suite 1100, Toronto, Ontario M5G 1Z8 416 979-2165 Fax 416 979-8635 E-mail [email protected] Web Site www.cou.on.ca