Wetlands and Sea Level Rise

Similar documents
Estuary Adventures. Background. Objective

Adapting Living Shorelines: Siting and Design for Climate Impacts

WONDERFUL, WATERFUL WETLANDS

Reclamation Monitoring. Rachel Mealor Extension Range Specialist Department of Renewable Resources

Georgia Coastal Management Program

PERFORMANCE STANDARDS AND MONITORING PROTOCOL FOR TIDAL WETLAND MITIGATION BANKS. October 28, 2016

Chapter 6. Aquatic Biodiversity. Chapter Overview Questions

Salt Marsh Restoration. Mary Ann Metcalf

Methods: Record the date and time in the data book.

Selecting a Study Site

INVESTIGATING YOUR STREAM S DRAINAGE BASIN

Sea Level Rise Adaptation Strategy for San Diego Bay. Brian Holland, AICP, Climate Program Manager City of San Diego EESTF June 29, 2011

BUILDING LAND IN COASTAL LOUISIANA. Report Summary

Long Island s. Environmental Issues. Environmental Issues. Environmental Setting. Environmental Setting. Suburbia and the Environment

Coastal Flood Protection /Resiliency

Climate: describes the average condition, including temperature and precipitation, over long periods in a given area

Aquatic Communities Aquatic communities can be classified as freshwater

Aim: To determine the amount of Suspended Particulate Matter (SPM) in air at different sites in a city NCERT

Climate Change and Chesapeake Bay Habitats

BIOMES. Living World

Day in the Life of the Hudson & Harbor Vocabulary

ECOSYSTEMS, WATERSHEDS AND POLLUTION CONTROL REVIEW

A Salt Marsh Advancement Zone Assessment of West Haven, Connecticut

Research Background: View of a salt marsh in Plum Island Estuary. Photo by Harriet Booth.

BM2 Science 6th Grade 1415

Water Resources Management: Vulnerability of Coastal Aquifers to Climate Change & Human Effects.

New Castle County, DE. Floodplain Regulations

Equipment. Methods. 6. Pre-treatment monitoring will take place during the growing season.

Hydrology and Flooding

G.B. Sonny Hall, PhD. Veronika Thiebach

VIDEO: Freshwater Wetlands

Gas Guzzlers. Biological Pump

ESTUARY LESSON PLAN Getting Physical with Estuaries

ESTUARY LESSON PLAN Eyes on the Estuaries

The Importance of the Pearl River to Mississippi s Estuarine Habitats Jennifer Buchanan Education Coordinator

Practical Guidance for Coastal Climate-Smart Conservation Projects in the Northeast Case Examples for Coastal Impoundments and Living Shorelines

Adapting to Rising Tides

Water Resources on PEI: an overview and brief discussion of challenges

Climate Change, Marsh Erosion and the Chesapeake Bay TMDL

CLIMATE CHANGE ADAPTATION PLAN OF BEN TRE PROVINCE

[7-8] SA1.2 The student demonstrates an understanding of the processes of science by collaborating

VIDEO: Riparian Forest Buffers: The Link Between Land & Water

U.S. Army Corps of Engineers Mobile District

Adapting to Rising Tides. Contra Costa County Sea Level Rise Vulnerability Assessment

Living Shorelines & Coastal Resiliency: A Consultants Perspective. Presented by: Bethany Bearmore, P.E. Louis Berger

Hydrogeomorphic Wetland Classification HGM classification for wetlands of the Mid-Atlantic Region, USA

Impact of Climate Change on Diamondback Terrapin

How global warming and climate change may be accelerating losses of Chesapeake Bay seagrasses.

Grand Calumet. River Revitalized

Use of Ecosystem Services Approach for Integrated Estuarine Management

Maryland Adaptation and Vulnerability Assessment Maryland State Highway Administration

AP Environmental Science

Climate Change Impacts of Most Concern for CB Agreement Goal & Outcome Attainment

ASSESSMENT OF SALINITY INTRUSION IN THE RED RIVER UNDER THE EFFECT OF CLIMATE CHANGE

A field experiment on storm surge and waves attenuation by NNBF in the Chesapeake Bay Challenges and Opportunities

Case study 2 A vulnerability study of coastal areas and climate change in Senegal

Biscayne Bay Coastal Wetlands Phase I

Stream Ecology Lab Module 4/5 Determining Discharge and Sediment Yield in a Small Stream

WATERSHED AUDITS Auditing Stormwater Best Management Practices (BMPs) This Presentation Posted At ceds.org/audit

ENVIRONMENTAL RESOURCE PERMIT APPLICATION

Adapting to Rising Sea Level: A Florida Perspective

SRCD s Review of Impacts the Proposed Bay Delta Conservation Plan (BDCP) and Companion EIR/EIS on the Suisun Marsh

Chapter 8: Aquatic Biodiversity

Monitoring Coral Reef Ecosystems with Quadrats

WILDLIFE ECOLOGY AND CONSERVATION STUDY NOTES

Ecology Review A: Top Ten

CITY OF NORTH MYRTLE BEACH OCEAN OUTFALL PROGRAM

Ponds. Pond A water impoundment made by excavating a pit, or constructing a dam or an embankment.

Climate Change, Human Activities, and the State of New Jersey. Michael J. Kennish Institute of Marine and Coastal Sciences Rutgers University

CITY OF MOUNTAIN VIEW

CHAPTER 7 HYDRAULIC SURVEYS

Chapter 3: Communities, Biomes, and Ecosystems

Unit III Nutrients & Biomes

UK Climate Change Risk Assessment 2017: Summary of ASC-commissioned research projects

Paper 4: Alternative to Coursework!

INSTRUCTIONS FOR SUBMITTING A COMMERCIAL SEWAGE DISPOSAL PERMIT APPLICATION

38. VEGETATION Introduction. Vegetation Cook Inlet Drainages

Tools for Climate Change Adaptation: Intelligent Control of Green Infrastructure

REGENERATION AND SAPLING SURVEY

TARGETING WATERSHEDS FOR RESTORATION ACTIVITIES IN THE CHESAPEAKE BAY WATERSHED. Technical Documentation October 4, 2002

Sea Level Rise: Impacts, Adaptation and Information Gaps

The Galveston Bay Estuary Program and Partnerships

Dead-Zones and Coastal Eutrophication: Case- Study of Chesapeake Bay W. M. Kemp University of Maryland CES Horn Point Laboratory Cambridge, MD

Stream Ecology. Physical Characteristics

40 The Double Pit Latrine

Information for File # PRH

Lesson 2-2: Riparian Zones

3 Objectives 3 Ob jec tives

Natural and anthropogenic impact at the East Frisian coast - last 1000 years and future perspectives

ECONOMIC ANALYSIS OF NATURE BASED ADAPTATION TO CLIMATE CHANGE A DASHBOARD APPROACH

15.1 Life in the Earth System. KEY CONCEPT The biosphere is one of Earth s four interconnected systems.

William S. Schmidt Outdoor Education Center WOODLAND ECOLOGY- ORME

Maryland s Living Shorelines Program. Bhaskaran Subramanian February 27, 2015

Coastal Wetland Status and Trends in the Chesapeake Bay Watershed

Enclosed farmland: Arable and Horticultural, Improved and Neutral Grasslands

Living Shorelines. In this issue... What is a living shoreline?

Very slight to negligible limitations no special land management practices required.

Transcription:

Learning Science Through Research Wetlands and Sea Level Rise...a hands on science experience focusing on wetland h d i i f i tl d plant adaptations and the effects of sea level rise on wetlands.

WETLANDS! THE EFFECT OF ELEVATION AND SEA LEVEL RISE ON PLANT COMMUNITIES Background Wetlands are areas that are inundated with water for a long enough period of time to support plants that are adapted to live in wet conditions. Some wetlands are tidal, meaning the water level rises and falls with the tides each day, while other wetlands are non-tidal. In addition, wetlands can contain freshwater, saltwater, or brackish water a mixture of fresh and salt water. Wetlands are very important for a number of reasons. They provide food and habitat for many living organisms and they serve as a nursery for juvenile fish and crabs. Wetlands serve as filters, preventing excess nutrients and sediments from entering bodies of water. They also store flood water, acting as a buffer when floods or storm surges occur. In addition, wetland plants hold together soil, helping to prevent erosion. In recent decades, sea level rise has been affecting wetlands throughout the world, including those within Maryland s Blackwater National Wildlife Refuge. The wetlands of the Refuge are only 1.5 meters above sea level or less. This means that as sea level rises, the wetlands become increasingly inundated with water. Over time, areas once occupied by wetlands become open water and all of the important services provided by wetlands are lost. During this field experience, we will conduct scientific fieldwork to determine how slight changes in elevation affect plant communities. 1

Materials Thin rope/string Meter stick Line level Quadrat (Any size. You can use pvc piping or even hula hoops, as long as you can determine the area of the quadrat) Stakes (about 1.5 m high; tomato stakes work well) Meter tape Plant identification book/key: purchase for your local area or see below Brackish marsh: US East coast mid salinity plant guide at end of this document Salt marsh: http://des.nh.gov/organization/commissioner/pip/publications/wd/documents/wd- 04-19.pdf Comprehensive (photos of salt and fresh species) http://ccrm.vims.edu/wetlands/teaching_marsh/wetland_plants/index.htm Data sheet (these can be laminated and reused) Pen/pencil for recording data (or grease pencil if data sheets are laminated) Procedure PART A. In the Field 1. Locate a wetland near your school. A wetland is any area of land that is inundated with water for some period of time. Wetlands are everywhere, not just on the coast you just have to look closely. They often occur at the edges of ponds, etc. 1. Lay out transect. Depending on the age group, you could either have your students lay out the transect themselves, or you could prepare a chosen site beforehand. Choose a site that changes in elevation. Place a stake in the ground marking the beginning of the transect at the edge of the marsh nearest the water. Tie a line to the stake approximately 1 m. above the surface of the ground. Using a meter tape, place the next stake in the ground at a 3 m. distance (or whatever distance you establish) from the first stake. Stretch the line between the two stakes and level it using a line level. Continue placing stakes at your chosen intervals and level the line until you have traversed the distance you want to study. Assign each stake a letter: A, B, C, D, E, F. Your transect should look like Figure 1 below. Figure 1. Transect should traverse a change in topography (this view is exaggerated; change may only be several centimeters) 2

2. Assign each group one or more stakes. Groups should collect the following data at each stake along the transect: a. Measure the distance from the line to the ground using a meter stick. Record on the data sheet to the nearest centimeter (cm). NOTE: Be sure to measure from the string to the surface of the sediment. b. Randomly drop the quadrat on the ground within 0.5 m. of the stake. Be sure to pull any leaves, stems, etc. from underneath through the quadrat so that you can accurately determine the number of plants within that study area. c. If you must share the quadrat, mark each corner with a flag; then pass it on to the next group. d. Carefully record the following on the data sheet: plant species that occur within the quadrat (If you have trouble identifying a plant, take a small sample of it back to identify in the classroom) total number of each plant species within the quadrat PART B. Back in the classroom 1. Have each group report to the class the data recorded for their transect interval(s), including elevation in cm, plant species, and the total numbers of each species. Record the data on the board for the class to see. 2. Have students draw/graph a cross section of the transect using the collective class data on their data sheet. Graph axes/labels appear below. Students should fill in this graph by plotting distance from the line to the ground at each interval (centimeters), then connecting their plot points. They should also list the plant species observed at each interval and the number of each species counted. 3. Discuss observations: Which plant species were most abundant in lower elevations in the marsh? Which were most abundant in higher elevations? Why were different species found at different elevations? How might the species composition of the marsh change with sea level rise? 3

DATA SHEET Interval ID (A,B,C, etc): Investigators: Distance from the ground to the line: (cm) List plant species and total number counted for each species SPECIES TOTAL # 4

5

EXTENSION: HOW WILL SEA LEVEL RISE IMPACT WETLANDS? Do the activity Sea Level Rise and Storm Surge to determine how sea level rise will impact your local area. In this activity, students use topographic maps to determine what areas will be inundated during storm events as well as under several sea level rise scenarios. Use topographic maps of low-lying wetland areas (Blackwater National Wildlife Refuge on Maryland s eastern shore is a good example) to demonstrate the impact of sea level rise on wetlands. Activity is available at: http://www1.coseecoastaltrends.net/modules/observing_the_ocean/access_classroom_resources/ 6

Marsh Plant ID Guide Salt marsh cordgrass Flat leaves, round stem Three-square Flat leaves, three-sided square stem Spike rush Short, round leaves Looks similar to moss Marsh elder A shrub/bush Fleshy, opposite leaves Phragmites Tall Flat leaves Orach Triangle-shaped leaves Grows low to round

Salt meadow hay Longer more round leaves Resembles hay Salt Grass Shorter flatter spiky leaves