What Is Ecoforestry? – a Welsh Perspective Iliff Simey
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Silvicultural Systems and Regeneration Methods: Current Practices and New Alternatives 153
Silvicultural Systems and 9 Regeneration Methods: Current Practices and New Alternatives John C. Tappeiner, Denis Lavender, Jack Walstad, Robert O. Curtis, and Dean S. DeBell Development of Regeneration Practices 151 Early Logging Practices and Regeneration Methods 152 Studies of Natural Regeneration Processes 153 Artificial ConiferRegeneration 154 Producing Stands of Diverse Structures and Habitats 156 At Harvest 156 Young Stand Establishment 158 Regeneration inYoung to Mature Stands 158 Natural Succession 159 Conclusion 160 Literature Oted 160 In this chapter, we discuss silvicuItural systems and objective 1, and considerable wildlife habitat and regeneration methods to meet the needs of society other values can be provided while producing rela over the next several decades. We begin with a brief tively high yields of wood under objective 2. The history of silvicuItural systems and what we have knowledge and skills are available to pursue both ob learned about forest regeneration.in the Pacific jectives effectively. Moreover, many ownerswill likely Northwest. We then discuss how regeneration meth manage their forests under both approaches. ods might evolve over the next several decades. We believe that the practice of silviculture gen erally will be applied to two different forest man Development of Regeneration Practices agement philosophies and objectives, providing (1) old-forest characteristics and (2) wood production. Traditional methods for regenerating forests as part Significant amounts of wood can be produced under of a timber harvest fall into two broad categories: (1) 151 152 Section ll. Silvicultural Systems and Management Concerns even-age management systems, which include clear drew heavily on European experience and called for cutting, shelterwood, and seed-tree methods, and (2) intensive practices and detailed stand analyses. -
Analysis of Habitat Fragmentation and Ecosystem Connectivity Within the Castle Parks, Alberta, Canada by Breanna Beaver Submit
Analysis of Habitat Fragmentation and Ecosystem Connectivity within The Castle Parks, Alberta, Canada by Breanna Beaver Submitted in Partial Fulfillment of the Requirements for the Degree of Master of Science in the Environmental Science Program YOUNGSTOWN STATE UNIVERSITY December, 2017 Analysis of Habitat Fragmentation and Ecosystem Connectivity within The Castle Parks, Alberta, Canada Breanna Beaver I hereby release this thesis to the public. I understand that this thesis will be made available from the OhioLINK ETD Center and the Maag Library Circulation Desk for public access. I also authorize the University or other individuals to make copies of this thesis as needed for scholarly research. Signature: Breanna Beaver, Student Date Approvals: Dawna Cerney, Thesis Advisor Date Peter Kimosop, Committee Member Date Felicia Armstrong, Committee Member Date Clayton Whitesides, Committee Member Date Dr. Salvatore A. Sanders, Dean of Graduate Studies Date Abstract Habitat fragmentation is an important subject of research needed by park management planners, particularly for conservation management. The Castle Parks, in southwest Alberta, Canada, exhibit extensive habitat fragmentation from recreational and resource use activities. Umbrella and keystone species within The Castle Parks include grizzly bears, wolverines, cougars, and elk which are important animals used for conservation agendas to help protect the matrix of the ecosystem. This study identified and analyzed the nature of habitat fragmentation within The Castle Parks for these species, and has identified geographic areas of habitat fragmentation concern. This was accomplished using remote sensing, ArcGIS, and statistical analyses, to develop models of fragmentation for ecosystem cover type and Digital Elevation Models of slope, which acted as proxies for species habitat suitability. -
Gets President's Ear New Forestry' Guru Gunman Kills 8 in San Francisco
The administrations first priority is _iv to get federal timber sales released from MICHAEL LLOYD/The Oregonian court injunctions that have been in 9 Monte Dahlstrom (left) and his brother, Kirk, timber workers from Hoquiam, Wash., respond to President eves forest decision place since 1991 and return forest man- Thursday, "Were so sit.k of the government. All theyve done is talk. Is this Just more talk? I dont know,," Mirk Dahlstrom said. agement to the U.S. Forest Service and Bureau of Land Management, he said. ease timber communities through a Earlier Thursday a somber Clinton, tough transition. flanked by Vice President Al Gore and "The plan is more difficult than I four Cabinet members at a Washington, thought it would be in terms of the sizes D.C., news conference, called his plan of the timber cuts. in no small mea- Q: DOES THE CLINTON PLAN PROTECT OLD-GROWTH FORESTS? Q: HOW MANY JOBS WILL BE LOST? "a departure from the failed policies of A: the past." He said it will protect the en- Please turn to Yes. It protects 3.67 million forested acres in a system of A: By 1994, when the plan is in effect, timber jobs in the owl vironment, break legal gridlock and PLAN, Page A14 reserves stretching over 8.6 million acres from the Canadian region are expected to decline by an additional 6,000 from the border to Northern California. About 80 percent of the 1992 employment level of 125,400. Most job losses already Northwests remaining old-growth forests will be included in have occurred. -
Effect of Forest Fire on Tree Diversity and Regeneration Potential in a Tropical
Verma et al. Ecological Processes (2017) 6:32 DOI 10.1186/s13717-017-0098-0 RESEARCH Open Access Effect of forest fire on tree diversity and regeneration potential in a tropical dry deciduous forest of Mudumalai Tiger Reserve, Western Ghats, India Satyam Verma, Dharmatma Singh, Sathya Mani and Shanmuganathan Jayakumar* Abstract Introduction: The study was conducted in Mudumalai Tiger Reserve, in the Western Ghats to understand the effect of a single fire event on tree diversity and regeneration status. Four forest patches were selected which were unburned, 2-year-old burn, 5-year-old burn, and 15-year-old burn. Three 0.1 ha square plots were laid randomly in all four patches and analyzed for tree diversity, stand structure, and regeneration of tree species. Results: A total of 4129 individuals of tree species were recorded in field surveys, comprising 3474 seedlings, 121 saplings, and 534 trees. Totally, 40 tree species were recorded in study plots, from which 28 species were seedlings, 16 species were saplings, and 37 species were at tree stages. Conclusions: Tree diversity decreased in 2-year-old and 5-year-old burnt plots and was reached to the level of unburnt plots in 15 years of interval. Stems of small size classes started increasing after the fire. Seedling density increased linearly in subsequent years after fire but sapling and tree density recorded less than control in B2 but was higher in B5 and B15. The overall fire affected diversity, but regeneration showed a positive trend. Keywords: Dry deciduous forest, Forest fire, Fire mapping, Regeneration, Western Ghats Introduction seeds near the soil surface (Balch et al. -
Seral Stages
WHITE PAPER USDA Forest Service Pacific Northwest Region Umatilla National Forest White Paper F14-SO-WP-Silv-10 November 2012 A Stage Is A Stage Is A Stage…Or Is It? Successional Stages, Structural Stages, Seral Stages David C. Powell; Forest Silviculturist Umatilla National Forest; Pendleton, OR Initial Version: APRIL 1996 INTRODUCTION A landmark book called “Wildlife Habitats in Managed Forests: the Blue Mountains of Oregon and Washington” was published in 1979 (Thomas 1979). This book examined the effects of management activities on wildlife habitat, particularly the impact of timber management practices on large, free-ranging ungulates (e.g., deer and elk). Among other things, the Blue Mountains book also attempted to correlate wildlife habitat with vegetation seral status by using a successional stage classification system. As a result of the book’s popularity with natural resource managers, use of its succes- sional stage classification became common in the Blue Mountains (fig. 1). Shortly after publication of the Wildlife Habitats book, the Umatilla National Forest ini- tiated a planning process in response to the National Forest Management Act of 1976. The planning process consumed an entire decade and culminated with publication of a Land and Resource Management Plan (e.g., Forest Plan) in 1990 (USDA Forest Service 1990). The Land and Resource Management Plan (Forest Plan) for the Umatilla National Forest (USDA Forest Service 1990) established specific standards related to seral (suc- cessional) stages for three management allocation areas (A10, C4, and E2). The seral stage system used in the Forest Plan is the same as the successional stage system de- scribed in the Wildlife Habitats book (Thomas 1979). -
How to Transform Your Yard Into a Food Forest
edible Landscaping: How to transform your yard into a food forest. a manualfesto jayme margaret melrose: garden doula participating members of a comprehensive earth community spectrum of (forest) gardening ecological organic gardening forest ecoforestry Cultivated...landscaping farming gardening ...wildernesSparks hands on hands off 6 easy edible landscaping tips 1. use formal designs filled with vegetables. 2. plant kale & chard as ornamental annuals. 3. Grow edible flowers. 4. Trellis with climbing beans or peas. Chives Red clover Borage Lilac Lavender Roses Daylillies Tulips Dandelions Nasturiums Pansies Violets Carnations Stocks Bachelor buttons Dahlias Bee balm California poppy Calendula Daisy Phlox Hosta Hosta fortunei Snapdragon Fuschia Columbines 5. use highbush blueberries as ornamental shrubs. 2 varieties to polinate! 6. plant fruit trees. Espallier, container, or standard trees. apples. pears. cherries. peaches. plums. apricots. persimmons. quince. Perennial food plants: Perennial food plants: Asparagus Chives Walking onions Rhubarb Stinging nettle Sorrel Jerusalem artichokes Fiddleheads Mushrooms Nuts Fruit Berries Seakale - Crambe maritima Tea herbs Culinary herbs Medicinal herbs native food plants: native food plants: Oak - acorns Beech - nut Sugar maple - syrup Butternut - nut Beaked hazelnut Serviceberry Chokecherry Chokeberry Cranberry Huckleberry Blueberry Blackberry Bunchberry Highbush cranberry - Viburnum opulus Wild raisin - Viburnum nudum Ostrich fern - fiddleheads Indian potato - tuber Sweetfern - tea leaves Labrador tea - tea leaves Bog rosemary - tea & seasoning circa 1850 View from Dartmouth Common Watercolors by Mercer View from halifax Common towards NorthWest arm black walnut beech butternut hickory chestnut beaked hazelnut pecan New England nut trees Indian Potato: Apios americana edible forest gardening is: - an edible ecosystem: a consciously designed community of mutually beneficial plants and animals intended for human food production. -
Observe and Interact Obtain a Yield Redundancy Catch and Store Energy
1 THE PERMACULTURE ETHICS ● Care of Earth ● Care of Humans ● Share the Surplus ● Respect Intrinsic Value THE PRINCIPLES OF PERMACULTURE from Bill Mollison & David Holmgren Observe and Interact The primary design tool is the designer. Beauty is in the eye of the beholder. Observation is a short way of saying, “Noticing the information coming from all your senses as they experience and interact with your environment, both inner and outer.” OBSERVATION PRACTICES: sit spot, meditation, breathing awareness, journaling, Nature Walks [learning about the flora and fauna that live around you], Herb Walks [learning about wild edibles and medicinals], learning tracking/hunting skills, learning about the movement of the constellations and the moon. You can’t work on an empty stomach. [and neither can anyone else] Obtain a Yield As PC designers, we are creating “cultivated ecosystems” – cultivated to produce a yield of food, shelter, fiber, medicine, or other product/service useful to humans. Therefore, for each element we consider, we must design to obtain a yield. Redundancy Have a backup plan. Be prepared! For every critical need, provide for multiple ways of meeting that need. Critical needs are water, food, money, heating, toilet, congeniality, social/political power. USE IN DESIGN: ● Food: Design to have fresh food all year long, and preserve as much as you can. ● Water: Cisterns, public utility, and pond. ● Electricity: Photovoltaics, and grid, or PV and wind/hydro power. [and non-electric tools!] ● Polycrop to provide plants with many avenues for pollination, pest protection, nutrients. ● Design or do other creative work with a team – have more than one mind, more than one person holding the skills and information. -
Regeneration of Soils and Ecosystems: the Opportunity to Prevent Climate Change
REGENERATION OF SOILS AND ECOSYSTEMS: THE OPPORTUNITY TO PREVENT CLIMATE CHANGE. BASIS FOR A NECESSARY CLIMATE AND AGRICULTURAL POLICY. From the International Year of the Soils and Paris COP21 to the Decade on Ecosystem Restoration 2021-2030 SUMMARY We are probably at the most crucial crossroad of Humanity’s history. We are changing the Earth’s climate as a result of accelerated human---made Greenhouse Gases Emissions (GHG) and biodiversity loss, provoking other effects that increase the complexity of the problem and will multiply the speed with which we approach climate chaos1, and social too: --- Climate Change: A Risk Assessment: The report argues that the risks of climate change should be assessed in the same way as risks to national security, financial stability, or public health. (http://www.csap.cam.ac.uk/projects/climate---change---risk--- assessment/). --- “Over---grazing and desertification in the Syrian steppe are the root causes of war” (http://www.theecologist.org/News/news_analysis/2871076/overgrazing_and_des ertification_in_the_syrian_steppe_are_the_root_causes_of_war.html). We explain and justify scientifically the need to give absolute priority to the regeneration of soils and ecosystems. The sustainability concept has driven positive changes but has failed on two levels: it has been easy to manipulate because of its inherent laxness, and because of the fact that since the Earth Summit (Rio de Janeiro, 1992) indicators show much worsening and certainly no improvement. Global emissions increase and soil erosion is every year hitting new negative records. Ecological and agrosystem regeneration necessarily implies a change for the better, a positive attitude and the joy of generating benefits for all living beings, human or not. -
References – for All Case Studies and Overview
Changing Ownership and Management of State Forest Plantations. References References – for all case studies and overview ABARE (2001). Australian Commodity Statistics 2001. Canberra. ACF (1988). The wood and the trees revisited. ACF responds to the forest industries. ACF, Hawthorn, Victoria. Acuiti Legal (2002). Tax concessions reintroduced for plantation forestry industry. www.ptaa.com.au/acuiti.html Accessed 30/04/2002. AFFA (Agriculture Fisheries and Forestry – Australia) (2002). Industry Development and Adjustment. Australia’s Unique Forests. www.affa.gov.au/ Accessed 31/07/2002 Afforestation Proprietary Limited. 1926. Timber wealth, something for all: a large return for a small investment. Afforestation Proprietary Ltd, Melbourne. 22p. Aldwell, P.H.B. 1984. Some social and economic implications of large-scale forestry in Waiapu County. Forest Research Institute, New Zealand Forest Service, Rotorua. 39p. Alexander, F. Brittle, S., Ha, A.G. Leeson, T. and Riley,C. (2000). Landcare and farm forestry: providing a basis for better resource management on Australian farms. ABARE report to the Natural Heritage Trust, Canberra. Anderson, J. (1997). Minister removes export controls on wood sourced from plantations in Western Australia. Media Release Department for Primary Industries and Energy, 22nd September 1997. Anderson, R.S. and W. Huber. 1988. The Hour of the Fox: Tropical Forests, The World Bank and Indigenous People in Central India. New Delhi: Vistaar/Sage. Anon. (2001). Gunns adds North Forest to its trees. The Australian March 20th 2001. Anon. 1996. NZ government rushes to sell forests. Green Left Weekly. URL: www.greenleft.org.au/back/1996/245/245p18.htm Accessed 28/11/2002 Anon. 1998. Job cuts decimate New Zealand forestry industry. -
Emerging Issues in Forest Science
Folia Forestalia Polonica, series A, 2011, Vol. 53 (1), 52–63 REVIEW ARTICLE Emerging issues in forest science Don K. Lee¹, Niels E. Koch² , John Innes3 and Peter Mayer4 1 Seoul National University, Department of Forest Sciences, Seoul 151-921, Republic of Korea ² University of Copenhagen, Faculty of Life Sciences, Rolighedsvej 23, DK-1958 Frederiksberg C, Denmark, phone: +45 353 31515, fax: +45 3533 1508, e-mail: [email protected] ³ University of British Columbia, Faculty of Forestry, 2424 Main Mall Vancouver, BC Canada V6T 1Z4 4 Federal Research and Training Centre for Forests, Natural Hazards and Landscape, Seckendorff-Gudent-Weg8, A-1131 Vienna, Austria AbstrAct Major issues in forest science, such as climate change, bio-energy, biodiversity, and water, were assessed by IUFRO responsive to the broader scientific and policy communities to tackle more complex global environmental, social, and economic issues impacting forests. Other issues highlighted in this paper are forest health and forest genet- ics; forest modeling and operations engineering; challenges for mitigation and adaptation; public participation on decisions, research, and distribution of benefits; estimating ecosystem services, biofuels and biodiversity; societal issues, including health, food, poverty, urbanization, and lifestyle; educational change in structure and topics; and information and research administration. As forest science faced various challenges in the last few years, there is a need for interdisciplinary approaches and cross-sectoral collaboration. These interrelated and emerging key-issues, particularly climate change, biodiversity, bio-energy and water, are of strong interest to policy makers and groups inside and outside the forest sector. These will all be of high relevance to forest science and to IUFRO in the coming years, primarily for global collaboration. -
Ecosystem Succession: Who/What Is Where and When
Ecosystem Succession: Who/What is Where and When Dennis Baldocchi ESPM Un ivers ity o f Ca liforn ia, Ber ke ley ESPM 111 Ecosystem Ecology Succession • From the Latin, succedere, to follow after • Orderly process of community development that is directional and predictable • Results from the modification of physical environment by the community – Succession is community-controlled even though the physical environment determines the pattern , rate of change and limits • Culminates in a stabilized ecosystem in which biomass and symbiotic function between organisms are maintained per unity of available energy flow – Eugene P Odum, 1969, Science ESPM 111 Ecosystem Ecology Succession • Primary Succession – After severe disturbance that remove or bury products of the ecosystem • Secondary Succession – After disturbance on a vegetated site. Most above ground live biomass may be disturbed but soil organic matter and plant propagules remain • Gap Phase Succession – Mortality and Tree fall for gap in canopy for new vegetation to invade and establish itself ESPM 111 Ecosystem Ecology Dynamic Sequence of Vegetation • Initial Conditions – Equilibrium • Disturbance • Colonization/Recruitment • Recovery • Competition • Succession – Primary – Secondary – Gap Succession • Climax – New Eq uilibri u m ESPM 111 Ecosystem Ecology Disturbance • Relativelyyp Discrete event, in time and space, that alters the structure of populations, communities and ecosystems and causes changes in resource availability and the ppyhysical environment. Chapin et al. ESPM 111 -
Observe and Replicate Natural Patterns
THE PERMACULTURE ETHICS Care of Earth Care of Humans Share the Surplus Respect Intrinsic Value THE PRINCIPLES OF PERMACULTURE from Bill Mollison & David Holmgren Observe and Interact The primary design tool is the designer. Beauty is in the eye of the beholder. Observation is a short way of saying, “Noticing the information coming from all your senses as they experience and interact with your environment, both inner and outer.” The root of this principle is the willingness to begin designing a culture based on co-creation with Nature, while acknowledging the limitations of our present cultural norm of separation from Nature. It is the willingness to Dance with Nature, learning when to interfere, when not to; learning where limitations and abundances exist, and when; and how to intermesh our human-ness into an ecosystem to meet our needs and help it work better for All. OBSERVATION PRACTICES: sit spot, meditation, breathing awareness, journaling, Nature Walks [learning about the flora and fauna that live around you], Herb Walks [learning about wild edibles and medicinals], learning tracking/hunting skills, learning about the movement of the constellations and the moon. Obtain a Yield You can’t work on an empty stomach. [and neither can anyone else] Definition of system yield: System yield is the sum total of surplus energy produced by, stored, conserved, reused or converted by the design. Energy is in surplus once the system itself has available all it needs for growth, reproduction and maintenance. As PC designers, we are creating “cultivated ecosystems” – cultivated to produce a yield of food, shelter, fiber, medicine, or other product/service useful to humans.