Meta-Evaluation: Using Meta-Analysis and Data Visualization to Inform Policy Anupa Bir and Nikki Freeman
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DATA COLLECTION METHODS Section III 5
AN OVERVIEW OF QUANTITATIVE AND QUALITATIVE DATA COLLECTION METHODS Section III 5. DATA COLLECTION METHODS: SOME TIPS AND COMPARISONS In the previous chapter, we identified two broad types of evaluation methodologies: quantitative and qualitative. In this section, we talk more about the debate over the relative virtues of these approaches and discuss some of the advantages and disadvantages of different types of instruments. In such a debate, two types of issues are considered: theoretical and practical. Theoretical Issues Most often these center on one of three topics: · The value of the types of data · The relative scientific rigor of the data · Basic, underlying philosophies of evaluation Value of the Data Quantitative and qualitative techniques provide a tradeoff between breadth and depth, and between generalizability and targeting to specific (sometimes very limited) populations. For example, a quantitative data collection methodology such as a sample survey of high school students who participated in a special science enrichment program can yield representative and broadly generalizable information about the proportion of participants who plan to major in science when they get to college and how this proportion differs by gender. But at best, the survey can elicit only a few, often superficial reasons for this gender difference. On the other hand, separate focus groups (a qualitative technique related to a group interview) conducted with small groups of men and women students will provide many more clues about gender differences in the choice of science majors, and the extent to which the special science program changed or reinforced attitudes. The focus group technique is, however, limited in the extent to which findings apply beyond the specific individuals included in the groups. -
Data Extraction for Complex Meta-Analysis (Decimal) Guide
Pedder, H. , Sarri, G., Keeney, E., Nunes, V., & Dias, S. (2016). Data extraction for complex meta-analysis (DECiMAL) guide. Systematic Reviews, 5, [212]. https://doi.org/10.1186/s13643-016-0368-4 Publisher's PDF, also known as Version of record License (if available): CC BY Link to published version (if available): 10.1186/s13643-016-0368-4 Link to publication record in Explore Bristol Research PDF-document This is the final published version of the article (version of record). It first appeared online via BioMed Central at http://systematicreviewsjournal.biomedcentral.com/articles/10.1186/s13643-016-0368-4. Please refer to any applicable terms of use of the publisher. University of Bristol - Explore Bristol Research General rights This document is made available in accordance with publisher policies. Please cite only the published version using the reference above. Full terms of use are available: http://www.bristol.ac.uk/red/research-policy/pure/user-guides/ebr-terms/ Pedder et al. Systematic Reviews (2016) 5:212 DOI 10.1186/s13643-016-0368-4 RESEARCH Open Access Data extraction for complex meta-analysis (DECiMAL) guide Hugo Pedder1*, Grammati Sarri2, Edna Keeney3, Vanessa Nunes1 and Sofia Dias3 Abstract As more complex meta-analytical techniques such as network and multivariate meta-analyses become increasingly common, further pressures are placed on reviewers to extract data in a systematic and consistent manner. Failing to do this appropriately wastes time, resources and jeopardises accuracy. This guide (data extraction for complex meta-analysis (DECiMAL)) suggests a number of points to consider when collecting data, primarily aimed at systematic reviewers preparing data for meta-analysis. -
Third Year Preceptor Evaluation Form
3rd Year Preceptor Evaluation Please select student’s home campus: Auburn Carolinas Virginia Printed Student Name: Start Date: End Date: Printed Preceptor Name and Degree: Discipline: The below performance ratings are designed to evaluate a student engaged in their 3rd year of clinical rotations which corresponds to their first year of full time clinical training. Unacceptable – performs below the expected standards for the first year of clinical training (OMS3) despite feedback and direction Below expectations – performs below expectations for the first year of clinical training (OMS3). Responds to feedback and direction but still requires maximal supervision, and continual prompting and direction to achieve tasks Meets expectations – performs at the expected level of training (OMS3); able to perform basic tasks with some prompting and direction Above expectations – performs above expectations for their first year of clinical training (OMS3); requires minimal prompting and direction to perform required tasks Exceptional – performs well above peers; able to model tasks for peers or juniors, of medical students at the OMS3 level Place a check in the appropriate column to indicate your rating for the student in that particular area. Clinical skills and Procedure Log Documentation Preceptor has reviewed and discussed the CREDO LOG (Clinical Experience) for this Yes rotation. This is mandatory for passing the rotation for OMS 3. No Area of Evaluation - Communication Question Unacceptable Below Meets Above Exceptional N/A Expectations Expectations Expectations 1. Effectively listen to patients, family, peers, & healthcare team. 2. Demonstrates compassion and respect in patient communications. 3. Effectively collects chief complaint and history. 4. Considers whole patient: social, spiritual & cultural concerns. -
The Fire and Smoke Model Evaluation Experiment—A Plan for Integrated, Large Fire–Atmosphere Field Campaigns
atmosphere Review The Fire and Smoke Model Evaluation Experiment—A Plan for Integrated, Large Fire–Atmosphere Field Campaigns Susan Prichard 1,*, N. Sim Larkin 2, Roger Ottmar 2, Nancy H.F. French 3 , Kirk Baker 4, Tim Brown 5, Craig Clements 6 , Matt Dickinson 7, Andrew Hudak 8 , Adam Kochanski 9, Rod Linn 10, Yongqiang Liu 11, Brian Potter 2, William Mell 2 , Danielle Tanzer 3, Shawn Urbanski 12 and Adam Watts 5 1 University of Washington School of Environmental and Forest Sciences, Box 352100, Seattle, WA 98195-2100, USA 2 US Forest Service Pacific Northwest Research Station, Pacific Wildland Fire Sciences Laboratory, Suite 201, Seattle, WA 98103, USA; [email protected] (N.S.L.); [email protected] (R.O.); [email protected] (B.P.); [email protected] (W.M.) 3 Michigan Technological University, 3600 Green Court, Suite 100, Ann Arbor, MI 48105, USA; [email protected] (N.H.F.F.); [email protected] (D.T.) 4 US Environmental Protection Agency, 109 T.W. Alexander Drive, Durham, NC 27709, USA; [email protected] 5 Desert Research Institute, 2215 Raggio Parkway, Reno, NV 89512, USA; [email protected] (T.B.); [email protected] (A.W.) 6 San José State University Department of Meteorology and Climate Science, One Washington Square, San Jose, CA 95192-0104, USA; [email protected] 7 US Forest Service Northern Research Station, 359 Main Rd., Delaware, OH 43015, USA; [email protected] 8 US Forest Service Rocky Mountain Research Station Moscow Forestry Sciences Laboratory, 1221 S Main St., Moscow, ID 83843, USA; [email protected] 9 Department of Atmospheric Sciences, University of Utah, 135 S 1460 East, Salt Lake City, UT 84112-0110, USA; [email protected] 10 Los Alamos National Laboratory, P.O. -
Reasoning with Qualitative Data: Using Retroduction with Transcript Data
Reasoning With Qualitative Data: Using Retroduction With Transcript Data © 2019 SAGE Publications, Ltd. All Rights Reserved. This PDF has been generated from SAGE Research Methods Datasets. SAGE SAGE Research Methods Datasets Part 2019 SAGE Publications, Ltd. All Rights Reserved. 2 Reasoning With Qualitative Data: Using Retroduction With Transcript Data Student Guide Introduction This example illustrates how different forms of reasoning can be used to analyse a given set of qualitative data. In this case, I look at transcripts from semi-structured interviews to illustrate how three common approaches to reasoning can be used. The first type (deductive approaches) applies pre-existing analytical concepts to data, the second type (inductive reasoning) draws analytical concepts from the data, and the third type (retroductive reasoning) uses the data to develop new concepts and understandings about the issues. The data source – a set of recorded interviews of teachers and students from the field of Higher Education – was collated by Dr. Christian Beighton as part of a research project designed to inform teacher educators about pedagogies of academic writing. Interview Transcripts Interviews, and their transcripts, are arguably the most common data collection tool used in qualitative research. This is because, while they have many drawbacks, they offer many advantages. Relatively easy to plan and prepare, interviews can be flexible: They are usually one-to one but do not have to be so; they can follow pre-arranged questions, but again this is not essential; and unlike more impersonal ways of collecting data (e.g., surveys or observation), they Page 2 of 13 Reasoning With Qualitative Data: Using Retroduction With Transcript Data SAGE SAGE Research Methods Datasets Part 2019 SAGE Publications, Ltd. -
Journals in Assessment, Evaluation, Measurement, Psychometrics and Statistics
Leadership Awards Publications Resources Membership About Journals in Assessment, Evaluation, Measurement, Psychometrics and Statistics Compiled by (mailto:[email protected]) Lihshing Leigh Wang (mailto:[email protected]) , Chair of APA Division 5 Public and International Affairs Committee. Journal Association/ Scope and Aims (Adapted from journals' mission Impact Publisher statements) Factor* American Journal of Evaluation (http://www.sagepub.com/journalsProdDesc.nav? American Explores decisions and challenges related to prodId=Journal201729) Evaluation conceptualizing, designing and conducting 1.16 Association/Sage evaluations. Offers original articles about the methods, theory, ethics, politics, and practice of evaluation. Features broad, multidisciplinary perspectives on issues in evaluation relevant to education, public administration, behavioral sciences, human services, health sciences, sociology, criminology and other disciplines and professional practice fields. The American Statistician (http://amstat.tandfonline.com/loi/tas#.Vk-A2dKrRpg) American Publishes general-interest articles about current 0.98^ Statistical national and international statistical problems and Association programs, interesting and fun articles of a general nature about statistics and its applications, and the teaching of statistics. Applied Measurement in Education (http://www.tandf.co.uk/journals/titles/08957347.asp) Taylor & Francis Because interaction between the domains of 0.33 research and application is critical to the evaluation and improvement of -
Research Designs for Program Evaluations
03-McDavid-4724.qxd 5/26/2005 7:16 PM Page 79 CHAPTER 3 RESEARCH DESIGNS FOR PROGRAM EVALUATIONS Introduction 81 What Is Research Design? 83 The Origins of Experimental Design 84 Why Pay Attention to Experimental Designs? 89 Using Experimental Designs to Evaluate Programs: The Elmira Nurse Home Visitation Program 91 The Elmira Nurse Home Visitation Program 92 Random Assignment Procedures 92 The Findings 93 Policy Implications of the Home Visitation Research Program 94 Establishing Validity in Research Designs 95 Defining and Working With the Four Kinds of Validity 96 Statistical Conclusions Validity 97 Working with Internal Validity 98 Threats to Internal Validity 98 Introducing Quasi-Experimental Designs: The Connecticut Crackdown on Speeding and the Neighborhood Watch Evaluation in York, Pennsylvania 100 79 03-McDavid-4724.qxd 5/26/2005 7:16 PM Page 80 80–●–PROGRAM EVALUATION AND PERFORMANCE MEASUREMENT The Connecticut Crackdown on Speeding 101 The York Neighborhood Watch Program 104 Findings and Conclusions From the Neighborhood Watch Evaluation 105 Construct Validity 109 External Validity 112 Testing the Causal Linkages in Program Logic Models 114 Research Designs and Performance Measurement 118 Summary 120 Discussion Questions 122 References 125 03-McDavid-4724.qxd 5/26/2005 7:16 PM Page 81 Research Designs for Program Evaluations–●–81 INTRODUCTION Over the last 30 years, the field of evaluation has become increasingly diverse in terms of what is viewed as proper methods and practice. During the 1960s and into the 1970s most evaluators would have agreed that a good program evaluation should emulate social science research and, more specifically, methods should come as close to randomized experiments as possible. -
Chapter 5 Statistical Inference
Chapter 5 Statistical Inference CHAPTER OUTLINE Section 1 Why Do We Need Statistics? Section 2 Inference Using a Probability Model Section 3 Statistical Models Section 4 Data Collection Section 5 Some Basic Inferences In this chapter, we begin our discussion of statistical inference. Probability theory is primarily concerned with calculating various quantities associated with a probability model. This requires that we know what the correct probability model is. In applica- tions, this is often not the case, and the best we can say is that the correct probability measure to use is in a set of possible probability measures. We refer to this collection as the statistical model. So, in a sense, our uncertainty has increased; not only do we have the uncertainty associated with an outcome or response as described by a probability measure, but now we are also uncertain about what the probability measure is. Statistical inference is concerned with making statements or inferences about char- acteristics of the true underlying probability measure. Of course, these inferences must be based on some kind of information; the statistical model makes up part of it. Another important part of the information will be given by an observed outcome or response, which we refer to as the data. Inferences then take the form of various statements about the true underlying probability measure from which the data were obtained. These take a variety of forms, which we refer to as types of inferences. The role of this chapter is to introduce the basic concepts and ideas of statistical inference. The most prominent approaches to inference are discussed in Chapters 6, 7, and 8. -
An Outline of Critical Thinking
AN OUTLINE OF CRITICAL THINKING LEVELS OF INQUIRY 1. Information: correct understanding of basic information. 2. Understanding basic ideas: correct understanding of the basic meaning of key ideas. 3. Probing: deeper analysis into ideas, bases, support, implications, looking for complexity. 4. Critiquing: wrestling with tensions, contradictions, suspect support, problematic implications. This leads to further probing and then further critique, & it involves a recognition of the limitations of your own view. 5. Assessment: final evaluation, acknowledging the relative strengths & limitations of all sides. 6. Constructive: an articulation of your own view, recognizing its limits and areas for further inquiry. EMPHASES Issues! Reading: Know the issues an author is responding to. Writing: Animate and organize your paper around issues. Complexity! Reading: assume that there is more to an idea than is immediately obvious; assume that a key term can be used in various ways and clarify the meaning used in the article; assume that there are different possible interpretations of a text, various implications of ideals, and divergent tendencies within a single tradition, etc. Writing: Examine ideas, values, and traditions in their complexity: multiple aspects of the ideas, different possible interpretations of a text, various implications of ideals, different meanings of terms, divergent tendencies within a single tradition, etc. Support! Reading: Highlight the kind and degree of support: evidence, argument, authority Writing: Support your views with evidence, argument, and/or authority Basis! (ideas, definitions, categories, and assumptions) Reading: Highlight the key ideas, terms, categories, and assumptions on which the author is basing his views. Writing: Be aware of the ideas that give rise to your interpretation; be conscious of the definitions you are using for key terms; recognize the categories you are applying; critically examine your own assumptions. -
Data Collection, Data Quality and the History of Cause-Of-Death Classifi Cation
Chapter 8 Data Collection, Data Quality and the History of Cause-of-Death Classifi cation Vladimir Shkolnikov , France Meslé , and Jacques Vallin Until 1996, when INED published its work on trends in causes of death in Russia (Meslé et al . 1996 ) , there had been no overall study of cause-specifi c mortality for the Soviet Union as a whole or for any of its constituent republics. Yet at least since the 1920s, all the republics had had a modern system for registering causes of death, and the information gathered had been subject to routine statistical use at least since the 1950s. The fi rst reason for the gap in the literature was of course that, before perestroika, these data were not published systematically and, from 1974, had even been kept secret. A second reason was probably that researchers were often ques- tioning the data quality; however, no serious study has ever proved this. On the contrary, it seems to us that all these data offer a very rich resource for anyone attempting to track and understand cause-specifi c mortality trends in the countries of the former USSR – in our case, in Ukraine. Even so, a great deal of effort was required to trace, collect and computerize the various archived data deposits. This chapter will start with a brief description of the registration system and a quick summary of the diffi culties we encountered and the data collection methods we used. We shall then review the results of some studies that enabled us to assess the quality of the data. -
INTRODUCTION, HISTORY SUBJECT and TASK of STATISTICS, CENTRAL STATISTICAL OFFICE ¢ SZTE Mezőgazdasági Kar, Hódmezővásárhely, Andrássy Út 15
STATISTISTATISTICSCS INTRODUCTION, HISTORY SUBJECT AND TASK OF STATISTICS, CENTRAL STATISTICAL OFFICE SZTE Mezőgazdasági Kar, Hódmezővásárhely, Andrássy út 15. GPS coordinates (according to GOOGLE map): 46.414908, 20.323209 AimAim ofof thethe subjectsubject Name of the subject: Statistics Curriculum codes: EMA15121 lect , EMA151211 pract Weekly hours (lecture/seminar): (2 x 45’ lectures + 2 x 45’ seminars) / week Semester closing requirements: Lecture: exam (2 written); seminar: 2 written Credit: Lecture: 2; seminar: 1 Suggested semester : 2nd semester Pre-study requirements: − Fields of training: For foreign students Objective: Students learn and utilize basic statistical techniques in their engineering work. The course is designed to acquaint students with the basic knowledge of the rules of probability theory and statistical calculations. The course helps students to be able to apply them in practice. The areas to be acquired: data collection, information compressing, comparison, time series analysis and correlation study, reviewing the overall statistical services, land use, crop production, production statistics, price statistics and the current system of structural business statistics. Suggested literature: Abonyiné Palotás, J., 1999: Általános statisztika alkalmazása a társadalmi- gazdasági földrajzban. Use of general statistics in socio-economic geography.) JATEPress, Szeged, 123 p. Szűcs, I., 2002: Alkalmazott Statisztika. (Applied statistics.) Agroinform Kiadó, Budapest, 551 p. Reiczigel J., Harnos, A., Solymosi, N., 2007: Biostatisztika nem statisztikusoknak. (Biostatistics for non-statisticians.) Pars Kft. Nagykovácsi Rappai, G., 2001: Üzleti statisztika Excellel. (Business statistics with excel.) KSH Hunyadi, L., Vita L., 2008: Statisztika I. (Statistics I.) Aula Kiadó, Budapest, 348 p. Hunyadi, L., Vita, L., 2008: Statisztika II. (Statistics II.) Aula Kiadó, Budapest, 300 p. Hunyadi, L., Vita, L., 2008: Statisztikai képletek és táblázatok (oktatási segédlet). -
International Journal of Quantitative and Qualitative Research Methods
International Journal of Quantitative and Qualitative Research Methods Vol.8, No.3, pp.1-23, September 2020 Published by ECRTD-UK ISSN 2056-3620(Print), ISSN 2056-3639(Online) CIRCULAR REASONING FOR THE EVOLUTION OF RESEARCH THROUGH A STRATEGIC CONSTRUCTION OF RESEARCH METHODOLOGIES Dongmyung Park 1 Dyson School of Design Engineering Imperial College London South Kensington London SW7 2DB United Kingdom e-mail: [email protected] Fadzli Irwan Bahrudin Department of Applied Art & Design Kulliyyah of Architecture & Environmental Design International Islamic University Malaysia Selangor 53100 Malaysia e-mail: [email protected] Ji Han Division of Industrial Design University of Liverpool Brownlow Hill Liverpool L69 3GH United Kingdom e-mail: [email protected] ABSTRACT: In a research process, the inductive and deductive reasoning approach has shortcomings in terms of validity and applicability, respectively. Also, the objective-oriented reasoning approach can output findings with some of the two limitations. That meaning, the reasoning approaches do have flaws as a means of methodically and reliably answering research questions. Hence, they are often coupled together and formed a strong basis for an expansion of knowledge. However, academic discourse on best practice in selecting multiple reasonings for a research project is limited. This paper highlights the concept of a circular reasoning process of which a reasoning approach is complemented with one another for robust research findings. Through a strategic sequence of research methodologies, the circular reasoning process enables the capitalisation of strengths and compensation of weaknesses of inductive, deductive, and objective-oriented reasoning. Notably, an extensive cycle of the circular reasoning process would provide a strong foundation for embarking into new research, as well as expanding current research.