Past Webinars Webinars on YouTube
For questions on past webinars, please find the speaker’s contact information within the presentation, or feel free to contact Kara Miller (email@example.com), who can help connect you with the webinar speaker. SWS members have full access to all past webinar recordings. To access, please log in as a member.
Certificates of completion, worth one hour of webinar participation, are available upon request; please contact Kara Miller at firstname.lastname@example.org, if interested.
Webinars on YouTube
The SWS Webinar Committee is excited to announce that our free webinar recordings are now available on the SWS YouTube channel! Now, SWS supporters around the world can watch the webinars with subtitles in their native language.
To view the webinars with subtitles, click the “CC” button in the bottom, right-hand corner of the video. You can change the language of the subtitles by clicking on the settings button in the bottom, right-hand corner and going to subtitles/CC > auto-translate > and choosing the language of your choice.
December 2017: Five Causal Factors: A General Framework for Wetland Science and Restoration
At one time, lack of information limited our understanding of wetlands, and made restoration difficult. Now it is possible that the opposite is true: we are drowning in data on wetlands, and confused about how to best apply the huge volume of information. People are now, it seems, busily engaged in collecting data that no one will ever use, and writing papers that no one has the time to read.
How to deal with this situation? We cannot organize our information by species, because there are too many of them (ca. 125,000 species in wetlands according to the IUCN). We cannot organize information by geographical or ecological region, because there are too many of those too (867 ecoregions according to WWF). Meanwhile, new data streams into journals. What is to be done?
Perhaps we can learn from others. Consider that physicists can describe most of the universe using only four forces! Without succumbing to physics envy, we could borrow from this approach, and consider causal factors as ecological forces that transcend species and geography. Causal forces might provide us with a set of general principles to organize our existing knowledge, and to guide our attempts to restore wetlands.
I will explore how only five causal forces may account for nearly all the variation we see in and among wetlands: hydrology, fertility, natural disturbance, herbivory, and competition. In fact, the list can be shortened to four if we treat herbivory as just another kind of natural disturbance. These factors operate in all wetlands, be they peat bogs, mangrove swamps or freshwater marshes. The order in which we list them above matters, since hydrology alone likely accounts for half the variation (ca 50 percent), with fertility and natural disturbance next (ca 15 percent). If we can explain 80 percent of the composition and function of wetlands with just three causal factors, that is actually a rather good situation to be in.
Of course, other factors influence wetlands. Near the coast, salinity needs to be added to this list. Other factors can include burial, roads, and coarse woody debris.
In this presentation, I will walk you through this approach in more detail. My intention is to illustrate each of the causal factors with two examples: one that illustrates generality (for scientific organization of our ideas) and the other that illustrates application (for immediate use in wetland conservation or restoration.)
Dr. Paul Keddy has been a biologist, writer and scholar for more than forty years. He was a professor of ecology at three different universities, and now is an Independent Scholar, living on the edge of a large wetland, deep within the deciduous forests of Lanark County in southern Canada. He has written over 100 scholarly papers, and even more essays, most of which can be found at his web site www.drpaulkeddy.com. He achieved international designation as a Highly Cited Researcher, has awards from the Society of Wetland Scientists and the Environmental Law Institute, and, locally, is designated a Champion for Nature. His best-known books include Wetland Ecology, and Plant Ecology, both of which offer a global perspective on general principles in ecology and their applications to conservation. He also co-edited The World’s Largest Wetlands. In his spare time, has written two self-published natural history guides, one for Lanark County (which won the W.E. Saunders award from Ontario Nature), and one for Louisiana. The focus of his career has been upon the general principles that organize ecological communities, with emphasis upon plants and wetlands. His focus on plants was a rational decision -- the inescapable fact that more than 90 percent of the biomass on Earth is comprised of plants. He has a particular soft spot for turtles, frogs and alligators, but says that getting the vegetation right is essential to provide habitat for such species. He thinks that science should be used to solve problems in the real world, and hence has spent many hours advising on wetland conservation in areas including Nova Scotia, the Great Lakes watershed, and coastal Louisiana, with lesser forays including San Francisco Bay and the Everglades. He has served organizations including the National Science Foundation, the Natural Sciences and Engineering Research Council of Canada, World Wildlife Fund, and The Nature Conservancy. He also puts his money where his mouth is – over 40 years he has slowly bought nearly a square mile of forest and wetland in Lanark County, habitat which has now been donated to the local land trust as a nature sanctuary. He continues to write and lecture. His latest book is a new edition of Plant Ecology. His lectures have included Washington, Toronto, Madrid, Granada, and Lyon — as well as Perth, Almonte and Lanark Village.
November 2017: Wetland Restoration in the Rocky Mountains, USA: Lessons from the Field
During this webinar, I’ll describe several recent wetland restoration and compensatory mitigation projects completed in the Great Plains, Western Mountains and Valleys, and Arid West Regions of the western US. Each project presents its own challenges and offers its own lessons. These vary from specifics of restoration design and planting techniques, to the nuances of regulatory compliance and performance standards. I'll present various methods and approaches that have resulted in many successfully completed projects over the last 19 years.
Andy Herb, owner of AlpineEco (founded in 2007), has worked as a professional ecologist for 19 years. Although most of his work has been in the western USA, he also has successfully completed many projects in the Republic of Korea, Japan, and Guam. His work involves most aspects of field ecology, with a focus on wetland and vegetation studies. He has been involved in many projects that included Clean Water Act (Section 404), National Environmental Policy Act, and Endangered Species Act compliance, as well as general natural resource management. Mr. Herb has lead both research-oriented and infrastructure-related work for nearly all types of clients in the private and public sectors, including dozens of projects involving wetland creation and restoration. He is the immediate past-president of the Rocky Mountain Chapter of the Society of Wetland Scientists, and is also the founder and chairperson of SWS’s Wetland Restoration Section. His commitment to science and the environment, combined with his practical approach to problem-solving results in creative, cost-effective, and ecosystem-friendly approaches to projects. Mr. Herb is also the owner of AlpineEco Nursery (founded in 2012) which provides native wetland and riparian plants for ecological restoration in the Rocky Mountain Region.
Classification of macro-habitats: A powerful tool for comparative studies, sustainable development and environmental impact analysis in wetlands
The Classification of macro-habitats: A powerful tool for comparative studies, sustainable development and environmental impact analysis in wetlands was presented by Prof. Dr. Wolfgang J. Junk from the National Institute for Science and Technology in Wetlands (INCT-INAU), Federal University of Mato Grosso (UFMT), Cuiabá, Brazil. It was originally presented at I Congreso Internacional y II Congresso Nacional de Ríos y Humedales in Neiva, Huila, Colombia, October 23 - 27, 2017.
October 2017: Marsh response to sea level rise: examples from the Chesapeake and beyond
This presentation will focus on how marshes respond to sea level rise, and consider the processes that maintain marshes (i.e. vertical accretion), destroy marshes (i.e. erosion), and create marshes (i.e. migration into uplands). The presentation will particularly draw upon historical and modern examples of coastal change in the Chesapeake region, which includes locations where sea level rise has led to catastrophic marsh loss but also locations where marshes are getting bigger. Central themes include the importance of mineral sediment supply, and the role humans play in allowing or prohibiting marsh migration into adjacent uplands.
Dr. Matthew L. Kirwan is an Assistant Professor at the Virginia Institute of Marine Science with expertise in coastal geomorphology and ecology. His research focuses on marsh response to sea level rise, carbon-climate feedbacks, and the role humans play in the formation and survival of coastal landscapes. He is a graduate of the College of William and Mary and Duke University, and a member of the Nause Waiwash Indian tribe.
September 2017: Subtropical wetlands: comparing primary producer diversity and dominance and addressing restoration challenges
In this webinar, I will present highlights of my recently published research on patterns and controls of algal richness in the Okavango Delta (Botswana) and the Florida Everglades (U.S.A.), and of algal dominance in the Everglades. I will also introduce some preliminary comparisons of restoration approaches in other subtropical wetlands. Globally, anthropogenic activities are heavily impacting subtropical wetlands, for example via hydrological and nutrient changes. In these ecosystems, hydrological variability and nutrient availability are key factors determining changes in the community structure of key aquatic primary producers, such as microalgae. Highly diverse communities may use limiting nutrients more efficiently than less diverse ones, while, in the latter, a few algal species may dominate aquatic primary production. In turn, algal diversity and/or dominance may enhance wetland resilience via food web dynamics; thus we need to address the fundamental question: “How do diversity, enhanced by numerous rare species, and/or dominance by a few well adapted species vary with hydrological and nutrient changes in subtropical wetlands?” To predict how primary producer community structure will change with scenarios of oligotrophication / eutrophication, drying / wetting, and water flow diversion / restoration, we need more comparative studies with standardized approaches, and international and interdisciplinary collaborations. As key challenges await these aquatic systems facing present and/or predicted intense exploitation by humans and global environmental change, how can impacted wetlands be restored to an ecologically sustainable functioning state via effective science, monitoring, management, conservation, and policy?
Dr. Luca Marazzi holds an MSc in Environmental Sciences from the University of Milano Bicocca (Italy) and a Ph.D. in Freshwater Ecology from University College London (UK). Since January 2015, he has been working as a postdoctoral associate in Dr. Evelyn Gaiser’s laboratory at Florida International University, where he is investigating how and why diversity, abundance and biomass of freshwater microalgae change across space, time and environmental gradients in subtropical wetlands such as the Everglades and the Okavango Delta. His previous studies and research, teaching and consultancy work in Europe focused on topics such as bird migration, air quality assessments, climate change scenarios, biodiversity and ecosystem services, and sustainability. He is interested in further developing his comparative studies to encompass the analysis of wetland restoration and conservation practices in collaboration with other wetland experts.
August 2017: Robust Interpolation of Water Levels and Ecological Conditions at Unmonitored Wetlands using Regression-kriging
Tampa Bay Water, Florida's largest wholesale water supplier, is assessing environmental recovery of wetlands and lakes in the Northern Tampa Bay area in response to regional groundwater production cut-backs. Groundwater production cut-backs were initiated in 2003 to improve regional aquifer levels and wetland hydrology and as part of a larger effort to develop diverse, environmentally-sustainable supplies that could accommodate future growth. Over 400 monitored wetlands and lakes are being assessed in comparison to hydrologic standards based on regulatory minimum level criteria. Unfortunately, water level data are unavailable for 684 unmonitored sites (7,900 acres) located in the vicinity of groundwater wellfields, causing uncertainty regarding the extent to which these areas have recovered. We implemented a robust regression-kriging (RK) interpolation approach using R to provide estimates of water level and ecological recovery at each unmonitored site. Best subsets multiple linear regression with the Bayesian Information Criterion was used to select the most probable, but parsimonious, subset of variables for prediction of median water levels relative to indicators of historic inundation for the period 2008-2014. Residuals showed spatial autocorrelation, so they were kriged to generate a combined RK model. Cross-validated residuals from the RK model ranged from -0.66 feet to +0.40 feet for 80% of the locations. The RK predictions were compared to wetland-type specific thresholds to yield recovery status for each unmonitored site. Similar methods were applied to a field-assessed metric of ecological condition available from over 800 locations. The interpolated estimates of both water levels and ecological conditions are being used to screen out recovered sites and prioritize others for further study and potential mitigation.
Dan Schmutz is the Chief Environmental Scientist for Greenman-Pedersen, Inc. (GPI), a 1,200-person multidisciplinary consulting firm. He holds a Master’s degree in Zoology from the University of South Florida. He has over 20 years of professional experience focused on the development and application of ecological and hydrological field assessments, GIS analyses, and appropriate statistical techniques for addressing questions of interest to water supply managers.
July 2017: Types of constructed wetlands for wastewater treatment
Constructed wetlands have been used for wastewater treatment since the 1960’s. The first installations were put in operation in Germany; however, at present this technology is used across the globe. Constructed wetlands can be classified according to a) presence or absence of water on the surface (surface and subsurface flow), b) flow direction (horizontal, vertical) and c) according to the type of vegetation used. Constructed wetlands can be used to treat municipal, industrial and agricultural wastewaters, as well as for treatment of storm water runoff from urban areas, agriculture, roads and highways, golf courses, nurseries and for landfill leachate and mine drainage.
Jan Vymazal graduated from the University of Chemistry and Technology Prague where he also received his Ph.D. degree. Currently, he is a professor in the Environmental Sciences department at the Czech University of Life Sciences Prague. Jan is also an adjunct associate professor at Duke University’s Wetlands Center in Durham, North Carolina. His major research is focused on wastewater treatment in constructed wetlands and nutrient cycling in natural wetlands. He has authored more than 100 research papers in peer-reviewed journals, edited ten books and authored two monographs. Jan is a member of editorial boards of several international journals and he is the Editor in Chief of the journal Ecological Engineering. From 2009 to 2012, he was a chair of the IWA Specialized Group on Wetland System for Water Pollution Control and he is one of the past presidents of the SWS Europe Chapter.
May 2017: Using sediment enhancement to build tidal marsh resiliency on Blackwater National Wildlife Refuge, Maryland, USA
Located in Maryland, USA, Blackwater National Wildlife Refuge is part of the largest area of tidal marsh within the Chesapeake Bay watershed, and is of regional ecological significance for its wetlands and for the wildlife populations it supports. However, over 5,000 acres of tidal marsh have converted to open water on the refuge since 1938. The mechanisms contributing to Blackwater’s tidal marsh loss are generally attributed to a combination of sea level rise, subsidence, and herbivory by nutria.
In many areas on the refuge the elevation of the marsh surface is low relative to local tides, leading to excessive inundation. More than 80% of elevation points recently surveyed on Blackwater NWR were found to be well below the elevations needed for optimum plant growth for the refuge’s tide range (Kirwan and Guntenspergen 2012). When marsh vegetation is at an elevation below that which is optimal for plant growth, the rising sea level will further inhibit root zone growth and lead to additional marsh loss. On Blackwater NWR, vertical marsh development is particularly dependent on organic accretion driven by below-ground biomass production (Cahoon et al. 2010).
In December 2016, 26,000 cubic yards of sediment was pumped in a thin-layer application over approximately 40 acres of tidal marsh on the refuge. The purpose of this project is to raise the elevation of the existing marsh platform. The sediment enhancement will offer a twofold ecological benefit to marsh resilience: 1) The longevity of the marsh receiving thin layer sediment application will be extended by virtue of the raised surface elevation in relation to the tidal regime; and 2) Root zone production, and consequently rates of vertical accretion, should increase. Root zone production is the main driver of vertical accretion rates in the Blackwater River system (Cahoon and Guntnerspergen 2010). Building the marsh platform to an elevation that maximizes plant productivity will take full advantage of the capacity of the marsh to continue to build elevation (Kirwan and Guntenspergen 2012).
Matt Whitbeck is the supervisory wildlife biologist at Chesapeake Marshlands National Wildlife Refuge Complex in Maryland. Matt has over 19 years’ experience working in tidal marshes and natural resource management issues on National Wildlife Refuges. He has an M.S. in Wildlife and Fisheries Sciences from Texas A&M University.
April 2017: The Clean Water Rule: Real Facts
The US Environmental Protection Agency (USEPA) and the US Army Corps of Engineers (USACOE) published the “Clean Water Rule: Definition of “Waters of the United States” in 2015 to provide clarification on which US water bodies and wetlands are “Waters of the United States” (WOTUS) and thus, regulated jointly by the USACOE and USEPA under Section 404 of the Clean Water Act. The Clean Water Rule developed from several iterations of clarification memoranda that followed United States v. Riverside Bayview (1985), Solid Waste Agency of Northern Cook County (SWANCC) v. U.S. Army Corps of Engineers (2001), and most importantly, Rapanos et al. v. United States (2006). The rule contains eight categories of water bodies and wetlands and extensive definitions and exemptions to clarify which water bodies and wetlands are WOTUS and which are not. The exemption list formalizes in one source exemptions from various US Federal laws and policies. In this webinar, I will discuss the eight categories of WOTUS, their scientific bases for inclusion, the specific conditions required of each and the exemptions and common misinterpretations. The fate of the Clean Water Rule has been in US national news since January. The Rule is currently stayed nationwide by the US Sixth Circuit Court of Appeals.
Richard Chinn grew up in a non-science household; but early on, developed a love for sciences, pursuing a Bachelor's of Science degree at the University of Florida and a Master's of Science degree at the University of South Florida, with a major in zoology for both degrees. He began working for a number of state and regional governmental agencies in 1984 and then transitioned to the consulting world in 1992. Since 1997, he has provided environmental and wetland training as Richard Chinn Environmental Training. Richard has spent much of the last 20 years studying wetland regulations and has been avidly studying the WOTUS Rule nearly every work day since it was released. He has explained this rule to 600+ wetland scientists in 30+ courses over the last two years. Richard is a lifetime member of SWS and you may have recently seen his name on the SWS 2017 ballot as a candidate for President-Elect. Regardless of the outcome of the election, you can say hello to Richard at the Annual Meeting in Puerto Rico and learn “A Quick, Inexpensive, Easy Field Protocol to Determine Anoxia in Hydric Soils of Various Wetlands” from his talk. In his leisure time, Richard recently completed a novel, "The Enemy of My Enemy," a fictionalized story of the Doolittle Raid of World War II.
March 2017: The Challenges and Successes of Incorporating Coastal Wetlands into the U.S. Inventory of GHG Emissions and Sinks
Land use accounts for about a quarter of anthropogenic greenhouse gas (GHG) emissions, globally, and offers significant mitigation potential. There are linkages with adaptation and food security. Inclusion of land use is a topic of interest in the development of international climate agreements and is essential to meet the goal of avoiding dangerous tipping points of climate change.
It is estimated that, globally, drainage and excavation of mangrove, salt marsh and seagrass wetland soils release 450 million tons of CO2, annually (range 150-1005 MtCO2/yr). This is an emission roughly equivalent to that of California, but is an incomplete estimate as it does not recognize all human impacts to coastal wetlands (e.g. increased CH4 emissions from impaired tidal drainage and release of CO2 with anthropogenically driven wetland erosion).
The U.S. Inventory of GHG Emissions and Sinks (Inventory) chapter on land use, “Land Use Change and Forestry (LULUCF),” reports carbon stock change and emissions of CH4 and N2O, with activities on and conversion between forest lands, croplands, grasslands, settlement and wetlands. With the release of the 2013 IPCC Supplement to the 2006 IPCC Guidelines for National GHG Inventories: Wetlands (Wetlands Supplement), the United States is seeking to include emissions and removals with management activities on coastal wetlands and is responding to a request by the United Nations Framework Convention on Climate Change (UNFCCC) for Parties to report back in March 2017 on experience in applying the Wetlands Supplement.
To support the EPA, NOAA and Restore America’s Estuaries (RAE) have formed an interagency and science community, Coastal Wetland Carbon Working Group (CWCWG). The task of the CWCWG is to conduct an initial IPCC Tier 1 to Tier 2 baseline assessment of GHG emissions and removals associated with coastal wetlands using the procedures described in the recently released IPCC Wetlands Supplement. These initial efforts have assisted EPA with incorporating some preliminary results into the 2016 submission of the U.S. national GHG inventory as an information item, with the goal of full reporting in the 2017 submission. We will report on an update of current activities in support of that goal.
Steve Crooks, Ph.D., is a founder and Principal at Silvestrum Climate Associates, working on integrated climate adaptation and mitigation in coastal areas. He is also a wetland restoration practitioner and a founder of the International Blue Carbon Initiative. Steve was a national delegate to the Paris Climate Negotiations and a lead author of the IPCC Wetland Supplement, providing guidance on inclusion of coastal wetlands in national GHG Inventories.
Dr. Tiffany Troxler directs the Sea Level Solutions Center at Florida International University, a state university center that focuses on advancing knowledge, decision making and actions toward mitigating the causes and adapting to the effects of sea-level rise. She is a research scientist with expertise in coastal and wetland ecosystem science. Some of her projects include collaborative research that examines the effects of saltwater inundation on Everglades coastal wetlands, monitoring management actions associated with Everglades restoration and advancing interdisciplinary urban solutions to sea-level rise. Troxler is author of over 30 peer-reviewed articles and book chapters and was co-editor and contributing author on two IPCC methodological reports published in 2014 that guide greenhouse gas emissions estimation associated with land use and land-use change in wetlands.
February 2017: Liquid Assets: Building and Sustaining a State-Based Aquatic Ecological Restoration Program
Learn how Massachusetts created the first-in-the-nation, state-based, aquatic, ecological restoration division. With a focus on aquatic ecosystems, DER actively manages over 60 physical restoration projects. Restoration techniques include dam removal, culvert replacement, fill removal, urban river revitalization, water conservation and stream daylighting. Since 2012, DER has leveraged almost $20 million in non-state funds and nearly a $25 million in volunteer assistance. DER and partners have removed 43 dams, providing hundreds of miles of river continuity, and restored over 1,500 acres of coastal wetlands.
This webinar will highlight project successes, including the largest Atlantic white cedar swamp restoration in the Northeast (Eel River, Plymouth, MA) and other complex river and wetland restoration projects.
DER provides a template in how to create, tailor and promote a government-sponsored, ecological restoration program. A description of the tools that have been most effective in attracting and leveraging limited, state funding will also be discussed.
Tim Purinton oversees a nationally award-winning division that coordinates river, wetland and stream flow restoration projects, across the state. Tim was awarded a Governor Bradford Fellowship for Excellence in Public Administration, which allowed him to receive a MPA from Harvard University’s Kennedy School of Government.
January 2017: Restoring the River Flows
River flows have been recognized as the key driver of freshwater biodiversity by many ecologists. However, the understanding of such an important driver by the public, the industry and policy-makers is very limited. This presentation explains the importance of river flows and the key challenges, and shares WWF’s works in maintaining and restoring river flows, where possible, through tactics including: understanding and assessing environmental flows, restoring the river connectivity, managing and re-operating the existing infrastructures, promoting integrated basin planning and mainstreaming environmental flows into national and global policies.
Dr. Li was the Director of WWF Global Freshwater Program from 2008-2016 and led WWF’s works on freshwater conservation in many of the world’s large rivers, including the Amazon, Rio Grande and Rio Conchos, Amur, Yangtze, Mekong, Ganges, Indus, Danube, Balkan rivers and Zambezi. He has been working on water and river basin management in WWF since 2002 and was the leader of WWF’s work on basin management in China and restoration in the Central Yangtze.
December 2016: Life in the Mud: Relevance to Food Security, Climate Change, and Water Quality
Freshwater wetlands, coastal wetlands, benthic sediments of lakes, rivers, streams, marine sediments and paddy soils, all have one thing in common: mud. Many biological communities use mud as their habitat to support their livelihood. These include microbial communities, invertebrates and plant communities. Typically, mud in these ecosystems is present under water and very little or no oxygen is present in the mud to support their respiration. In this presentation, I will present key of roles of little players, i.e., microbial communities playing large roles in regulating various ecosystem processes that may have a direct link to global food security, water quality and climate change. For example, for the role of mud in food security, I will present global examples of how rice production is mediated by biogeochemical processes, regulated by various microbial communities housed in paddy soils. Similarly, I will provide various examples of the importance of mud in various ecosystems, as related to water quality, carbon sequestration and greenhouse gas emissions.
K. Ramesh Reddy is a graduate research professor of biogeochemistry and the chairman of the Soil and Water Sciences department at the University of Florida. He conducts research in the areas of coupled biogeochemical cycling of nutrients, as related to surface water quality, restoration wetlands and aquatic systems, ecological indicators, carbon sequestration and greenhouse gas emissions. Reddy has served on numerous advisory committees at state, national and international levels to assist agencies in developing science-based policy. Reddy has supervised 60 doctoral and master thesis committees and has served on an additional 130 graduate student committees. Publications related to Reddy’s research can be viewed here: http://soils.ifas.ufl.edu/wetlands. His select awards and honors include: the 1988 Fellow Award from the Soil Science Society of America, the 1988 Fellow Award from the American Society of Agronomy; the 2001 Soil Science Applied Research Award from the Soil Science Society of America; the 2002 Environmental Quality Research Award from the American Society of Agronomy; the 2002 Fellow Award from the American Association for the Advancement of Science; the 2012 Lifetime Achievement Award from INTECOL; the 2016 National Wetlands Award for research from the Environmental Law Institute and 2016 SWS Lifetime Achievement Award.
November 2016: Reclaiming, Using and Protecting Wetlands: the Dutch Approach
The Netherlands is the common delta of 3 major rivers. Originally a vast expanse of salt marshes, floodplains, swamps and large bogs, the Dutch started to live there on dwelling mounds 2000 years ago. From the 11th century, farmers and monasteries joined forces to build dikes, culminating in large reclamations funded by merchants and noblemen in the 17th century. Only in the 20th century, wetland protection became an issue, while new wetland areas are being created since 25 years. This story is about the vast original wetland wilderness, the ways the Dutch reshaped it into their minutely controlled country, about major floods and continuous innovations in ways to control or make use of wetlands. It ends with the current status, which includes a movie trailer on the Oostvaardersplassen, a vast wetland wilderness of only 40 years old.
Jos Verhoeven is professor emeritus of landscape ecology at the Department of Biology of Utrecht University, The Netherlands. He is also a Research Associate of the Smithsonian Institution in Washington, USA. He is the President of the Society of Wetland Scientist’s Europe chapter and a member of the executive board of INTECOL, the International Association of Ecology. Until 2015, he was the chairman of the Center for Wetland Ecology, a consortium of 20 research groups in the Netherlands and Flanders, and acted as the coordinator of the Hotspot “Shallow waters and peat meadow areas” of the Dutch national research program Knowledge for Climate. His research focuses on the biogeochemistry of wetlands at the ecosystem level, primarily the interactions between the biogeochemical cycles of carbon, nitrogen and phosphorus and the relation between biodiversity and ecosystem functioning. His studies involve nutrient-related studies of fens, bogs, river floodplains, freshwater tidal wetlands, lake marginal wetlands and mangroves, as well as the impacts of nutrient loading of wetlands on water quality and on greenhouse gas emissions, in the context to climate change and land use change.
Please click here to watch the trailer from New Wilderness.
October 2016: Will Reintroduction of Fire along Coastal Gradients Promote Lateral Migration of Marsh and Enhance Biodiversity?
Julia Cherry received her B.S. in Biology from Rhodes College in Memphis, Tennessee in 1999 and her Ph.D. in Biological Sciences at the University of Alabama in 2005. After completing a post-doctoral appointment at the USGS National Wetlands Research Center (NWRC) in Lafayette, Louisiana, Julia returned to the University of Alabama in 2006 as an Assistant Professor in the Departments of Biological Sciences and New College. She has since been promoted to the rank of Associate Professor. Currently, her research is aimed at understanding the effects of climate change and other environmental impacts on wetlands of the southeastern United States. She serves as the SWS Treasurer and the Ways and Means Committee Co-Chair.
Loretta Battaglia is a community ecologist with over 25 years of experience working in wetlands. She received her B.S. in Zoology in 1988 and her M.S. in Biology in 1991 from the University of Louisiana at Monroe. She received her Ph.D. in Ecology from the University of Georgia in 1998. Following graduation, Loretta entered a post-doctoral position at Louisiana State University. In 2003, she accepted a tenure-track Assistant Professor position in the Department of Plant Biology at Southern Illinois University (SIU) where she was promoted to Associate Professor in 2009. She is interested in the dynamics of wetland plant communities and the ecological processes that link them with the surrounding landscape. Specifically, research in her lab focuses on the effects of climate change and exotic species invasions on community structure and function, as well as development of restoration targets for coastal wetlands undergoing rapid climate change. Loretta’s current projects include research on assisted migration and prescribed burning as management tools in coastal ecosystems threatened by climate change. She serves as the SWS Secretary General and the Membership Committee Chair.