Recent Developments in Water Withdrawal Management

Similar documents
Water Issues Large Scale Water Use Assessment Tool MBG Horticulture Day

Michigan State University

Water Sustainability: Toward A Common Understanding Michigan Case Study

Using Your Computer for Water Withdrawal Planning and Groundwater Mapping

Michigan Water Use Requirements 2011 Update

Streamflow Depletion by Pumping Wells and the Michigan Water- Withdrawal Assessment Process

The DNR is charged with managing waters resources to assure an adequate and sustainable supply for multiple uses.

Role of NHD/NHDPlus for environmental-flow based legislation in Michigan and environmental-flow framework for the US Great Lakes Basin

Environmental Science and Policy Program. Environment at MSU: WATER. Networking for Environmental Researchers

CVC & TRCA Water Balance Guidelines for the Protection of Natural Features

Jan Moryk, Project Manager, Environmental Monitoring and Data Management Section, TRCA

From the cornbeltto the north woods; understanding the response of Minnesota. Chris Lenhart Research Assistant Professor BBE Department

Jan Moryk, Project Manager, Environmental Monitoring and Data Management Section, TRCA

Virtual Water Accounting: A New Framework for Managing Great Lakes Water Resources

Science Supporting Policy: The Case For Flow Quantity

Ottawa County Water Resources Study Phase 2

Establishing Environmental Flows for California Streams. Eric Stein Southern California Coastal Water Research Project

Michigan Department of Environmental Quality Resource Management Division Office of Oil, Gas, and Minerals

Magino Project Environmental Impact Statement. Technical Support Document Draft Fish Habitat Compensation Plan

Cold Waters Temperature Assessment across the Northeast

Rick Henderson, Field Operations Supervisor DEQ Office of Oil, Gas, and Minerals

Watershed Management Area Recommendations for NJ Water Policy

Instream Flow Protection Efforts in Pennsylvania

Bureau of Drinking Water & Groundwater Wisconsin DNR

APPENDIX 8. NORTHERN GROUND ELECTRODE LINE WATERCOURSE CROSSING ASSESSMENT BOOKLETS

Current Applicant s Handbook Wetland Criteria No Harm Standards. Narrative Standard All categories. Assessment

Impacts of Permit-Exempt Wells

Management Objectives and Targets

Warm Springs Hydro LLC 5203 South 11 th East Idaho Falls, ID

Comments from 4/12 - Draft Responses

The Grand River. Overview of Water Quality and Ecological Health. Daniel M. O Keefe, Ph.D. Michigan Sea Grant MSU Extension

Regulation of Groundwater

Sobhalatha Kunjikutty

NC Water Resources Planning April 4, Tom Fransen. North Carolina Division of Water Resources 1

Mapping and Understanding YOUR LAKE S WATERSHED By: Tony Groves, Pam Tyning, and Tory Meyers Water Resources Group, Progressive AE

2300A Pesticide General Permit

ALABAMA S FUTURE WITHOUT SUSTAINABLE WATER RESOURCES? NOT ON OUR WATCH. Marlon Cook

Environmental Resource Inventories. What are ERIs? Significance of information How to use them

Past Studies in the Clearwater River Watershed. Past Studies MPCA Lost River Investigation. Past Studies Clearwater River Nonpoint Study

INSTREAM FLOW GUIDELINES AND PROTECTION OF GEORGIA S AQUATIC HABITATS

F7 Stream Reach Summary

WATER MANAGEMENT PLAN FOR UNCONVENTIONAL GAS WELL DEVELOPMENT

3.4 AQUATIC ECOSYSTEMS AND FISH SPECIES

ICELANDIC RIVER / WASHOW BAY CREEK INTEGRATED WATERSHED MANAGEMENT PLAN STATE OF THE WATERSHED REPORT CONTRIBUTION SURFACE WATER HYDROLOGY REPORT

Impacts of 2015 Drought on Streamflow in the Columbia River Basin

Water for All, Now and Into the Future: Water Quantity in Wisconsin. A report by the Sierra Club-John Muir Chapter

Portage Lake Hubbard County

Information Request 37

STATE OF MICHIGAN DEPARTMENT OF NATURAL RESOURCES FISHERIES DIVISION RESEARCH REPORT 2089

Integrated Watershed Management Plan

CENTRAL ASSINIBOINE INTEGRATED WATERSHED MANAGEMENT PLAN SURFACE WATER HYDROLOGY REPORT

Green River Basin Plan Executive Summary

Environmental Flows and Habitat Suitability Index Assessments

Great Lakes-St. Lawrence River Basin Water Resources Compact Water Conservation and Efficiency Annual Program Review.

Song Lake Water Budget

Have agricultural management practices (AMPs) improved water quality?: A case study in Sugar Creek

MiCorps 101. Presented by Paul Steen. & MiCorps Staff

Ecological Limits of Hydrologic Alteration in Dane County Streams

Predicting Natural Background Phosphorus in Wisconsin Streams Using a Geostatistical Model. Shupryt, M.P. and Ruesch A.S.

Information for EFSAB:

Lecture 9A: Drainage Basins

Environmental Flows Allocation Process in Texas. Kevin Mayes Texas Parks and Wildlife Department March 2010

The following potential environmental receptors and impacts form the basis of TRCA s review under Ontario Regulation 166/06 and the Fisheries Act:

Hood River Basin Study

Advice to decision maker on coal mining project

Issue paper: Aquifer Water Balance

Bonsall Creek Watershed Management Plan Gap Analysis

The following potential environmental receptors and impacts form the basis of TRCA s review under Ontario Regulation 166/06 and the Fisheries Act:

Water Use Legislation

Hello my name is Joy Loughry and I am with the groundwater technical unit of the Minnesota department of natural resources. Today I am going to talk

Water Allocation. Permit Program 1

CUMULATIVE IMPACT ANALYSIS: A SIMPLE MODEL FOR LOCAL GOVERNMENT RESERVOIRS AND WITHDRAWALS IN GEORGIA

Boardman River Townships Project EAST BAY TOWNSHIP. WATER QUALITY ACTION PLAN Fall 2009

3.3 Paw Paw River, Michigan

Community. Restoration. Prevention.

Great Lakes Coastal Wetland Monitoring: Support of Restoration Across the Basin

Wapato Access Feasibility Study

CHAPTER FIVE Runoff. Engineering Hydrology (ECIV 4323) Instructors: Dr. Yunes Mogheir Dr. Ramadan Al Khatib. Overland flow interflow

Defining Flow Needs for Pennsylvania s Riverine Ecosystems Tara Moberg. Wednesday, Nov. 7, 2012 WRA of the Delaware Basin s 53 RD Annual Conference

4. What is Item A called? a. Eckman dredge b. Secchi disk c. Van Dorn sampler d. Ponar sampler

Hood River Basin Study

How Much is Too Much? Effects-Based versus Stressor-Based Benchmarks and Thresholds and Some Examples from the Elk Valley in the East Kootenays

Red Rock Lake: A Path Forward

Hydroecological tool: enhancements and results. enhancements and results. Marci Meixler. Project partners: Sponsored by:

Water and Wisconsin Agriculture: Reducing Withdrawals and Increasing Efficiency

Grand Traverse Bay Watershed Protection Plan:

Occurrence of Iron in Surface Waters of the Upper St. Johns River Basin

Watershed Analysis for Mendocino Redwood Company s Ownership in the Gualala River Watershed

Natural Gas Development in the Susquehanna River Basin. Jennifer Hoffman September 29, 2010 Pittsburgh, PA

Wickes Manufacturing TCE Plume Site Mancelona, Michigan

June 2008 LYNDE CREEK WATERSHED EXISTING CONDITIONS REPORT CHAPTER 10 - WATER TEMPERATURE

A landscape perspective of stream food webs: Exploring cumulative effects and defining biotic thresholds

GROUNDWATER. Water Resources of NYS: The Nature of its Underground Water. Composite Groundwater Environment. Groundwater Resources of NYS

Maine s Land Use Regulations and Erosion Control Techniques

Hydraulic Fracturing for Shale Gas Production: Practices & Progress

Recharge Lake/Wetland: Generalized Monitoring Strategy

Unify efforts to address water resources for the Big Sky area and surrounding zone of influence in three co-equal water resources focus areas:

ORIGINAL EFFECTIVE DATE

Municipal Stormwater Management Plan Prepared For The Borough of Cape May Point By Van Note-Harvey Associates VNH File No.

FREQUENTLY ASKED QUESTIONS GUELPH/GUELPH-ERAMOSA TIER 3 WATER BUDGET AND LOCAL AREA RISK ASSESSMENT STUDY

Transcription:

Recent Developments in Water Withdrawal Management Frank Ruswick David A. Hamilton Michigan Department of Environmental Quality

Overview What Water Withdrawals are regulated? Water Withdrawal Assessment Process Implementation Future Directions

All water sources covered Groundwater Surface water Great Lakes Inland waters Including: shallow wells, ponds, horizontal wells, etc.

Withdrawals less than 100,000 gpd (70 gpm) ) are not regulated. Any withdrawal of 100,000 gpd or more is a large capacity withdrawal (LCW). Beginning February 28, 2006, any new or increased withdrawal of 100,000 gpd or more is prohibited from causing an Adverse Resource Impact (ARI).

Baseline capacity If a LCW was used or developed to make a withdrawal on Feb 28, 2006, and if it is included in an annual report by April 1, 2009; then it is considered to be baseline capacity.

Beginning July 9, 2009, any new or increased withdrawals over 100,000 gpd will be evaluated by a Water Withdrawal Assessment Tool.

Water Withdrawal Assessment Process

Decision-Making Standard 2006 Legislation Adverse Resource Impact : Stream s s ability to support characteristic fish populations is functionally impaired Goal: Quantify Consistency Predictability

The Philosophy behind the Water Withdrawal Assessment Process Integrated, science-based approach Develop new thinking in integrating existing science Use a National Scientific Peer Review Panel Base the approach on Michigan data and State modeled relationships Science team: USGS, MDEQ, MDNR, UM, MSU Run an open shop - inclusive, seek participation, communication: Council & guests (across all sectors) Technical and Legal and Mitigation Subcommittees MDA, MDEQ & MDNR on Council

The Flow Regime Paradigm Climate Geology Landuse Flow regime Hydraulics Channel Nutrients Temperature -- There is a geography of flow regimes -- Fish species are adapted to habitats controlled by certain quantities of, and variability in, river flows

Looking Glass River near Eagle Mean Monthly Flows 200,000 150,000 100,000 50,000 0 Jan Feb March April May June July August Sept Oct Nov Gallons per Minute Dec Index Flow Index Flow Stressful, low flow period

0 2.4 2 North Branch Kawkawlin River at Kawkawlin 1.6 1.2 0.8 0.4 0 2.4 2 1.6 1.2 0.8 Grand River at Eaton Rapids Michigan rivers naturally have different flow regimes, and thus different habitat conditions, biological communities, sensitivity to disturbance, and potential for fishery management. 0.4 0 2.4 2 Platte River at Haze Rd 1.6 1.2 0.8 0.4

The Water Withdrawal Assessment Process Feeds Supports Groundwater Stream Flow Fish Populations Three Models Interact within the impact assessment model Withdrawal Model - How much water is in the aquifer, is being withdrawn, and from where and how it will affect stream flow Streamflow Model - How much water is flowing in the stream during summer low flow periods Fish Impact Model - What fish are in the stream and what is the likely effect of removing water on those groups of fish

Characteristics of the Withdrawal Model Distance Matters A well adjacent to a river will very quickly get water either from water that would have gone to the river or directly from the river A well farther from a river will get more water from storage and require a longer time to affect the stream Geology and Soil Matters Clay soils are tight and water does not move easily Sandy soils are porous and water flows quickly

The Streamflow Model Need to Know How Much Flow is in any Stream Segment Index flow ; ; low flow period in the year Look at the segments where we know the flow (147 stream gauges in the State) and extrapolate these to the streams that are not gauged Major Factors Used Drainage Basin Size Forest Cover Geology and Soils Precipitation

Major Factors in the Analysis The geographic database contains info for 11,000 distinct watersheds and streams Info on watershed location, size, geology; and on stream flow, temperature, and fish populations Resulting maps closely match field experiences

Yield (cfs/sq. mi) 0-0.1 0.1-0.213 0.213-0.334 0.334-0.468 0.468-0.631 0.631-0.826 0.826-1.294

Fish Response Model What fish populations live where in the streams of the State and how do they respond to flow reductions in the summer (at low flow) Two Key Issues to Review Defining Stream Types and Characteristic Fish Populations Defining Functional Impairment to Characteristic Fish Populations due to water withdrawals

We grouped Michigan streams into types and developed response models using an average of ~ 20 specific segments per type Cold 20 Cold Sm Rivers X Cold Trans Cool Warm 20 Warm Streams Streams Sm Rivers Lg Rivers

Low-Flow Yield (m 3. s -1. km -2 ) brook trout brown trout hornyhead chub smallmouth bass mottled sculpin rock bass yellow perch brook stickleback white sucker creek chub Each Species has a range of flow that it prefers or thrives in burbot black bullhead northern pike walleye logperch silver redhorse freshwater drum 10 100 1000 10000 Catchment Area (km 2 )

Score vs. relative density - All species 3 Characteristic Thriving Relative density 2 1 Below state median Above state median 2X state median 0 0 1 2 3 4 Score Relative density = site density / species' median density statewide (7000 species predictions / 183 sites)

What Can the Fish Curves Tell Us About Functional Impairment? 1.2 1 0.8 Characteristic species abundance Characteristic species remaining Thriving species thriving Proportion 0.6 0.4 0.2 0 0 0.2 0.4 0.6 0.8 1 Proportion of flow removed

Interpretive criteria from Davies and Jackson 2006 Baseline or existing condition Some density changes in fish Some replacement of sensitive species Proportion 1.2 1 0.8 0.6 0.4 Characteristic species abundance Characteristic species remaining Thriving species thriving Notable replacement by tolerant species Tolerant species dominant; ecological functions altered Severe alteration of ecological structure and function 0.2 0 0 0.2 0.4 0.6 0.8 1 Proportion of flow removed

Developed Fish Curves (Response Models) for Each Major Stream Type 1 1 0.8 0.8 Cold 0.6 0.4 0.2 0.6 0.4 0.2 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 1 1 1 0.8 0.8 0.8 Trans 0.6 0.4 0.6 0.4 0.6 0.4 0.2 0.2 0.2 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 1 1 1 0.8 0.8 0.8 Cool 0.6 0.4 0.6 0.4 0.6 0.4 0.2 0.2 0.2 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 1 1 1 0.8 0.8 0.8 Warm 0.6 0.4 0.6 0.4 0.6 0.4 0.2 0.2 0.2 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 0 0 0.25 0.5 0.75 1 Streams Sm Rivers Lg Rivers

1 0.8 Interpreting the Fish Curves 80% 90% Proportion 0.6 0.4 A B C D Characteristic Fish 0.2 Gradient of increasing risk Thriving Fish 0 0 0.25 0.5 0.75 1 Proportion of index flow removed Adverse Resource Impact

Water Withdrawal Surface Water 100% removed from stream Ground Water Impact on stream can be less than 100% Impact can include nearby streams Impact can be spread over a relatively large area

Relative availability of surface water: low high

Relative availability of water when include bedrock aquifers: low high

The Water Withdrawal Assessment Process This is the process that the user goes though to see whether the proposed withdrawal is OK or is likely to cause an adverse effect on fish populations Screening Tool The Automated Analysis within the model based on general, state-wide data for a given withdrawal Site Specific Analysis Same process as above but using site-specific specific data on flow, geology or fish

Implementation

Date 2/28/2006 ARI standard: narrative Presumed no ARI: 1320 feet away from Trout Stream > 150 feet deep Applies to: Trout Streams Narrative: Shall not functionally impair a stream s ability to support characteristic fish populations.

Date 2/28/2008 ARI standard: narrative Presumed no ARI: 1320 feet away from Trout Stream > 150 feet deep Applies to: all streams Narrative: Shall not functionally impair a stream s ability to support characteristic fish populations.

Date 7/9/2008 ARI standard: narrative Presumed no ARI: 1320 feet away from all streams > 150 feet deep Applies to: all streams Narrative: Shall not functionally impair a stream s ability to support characteristic fish populations.

Date 2/1/2009 ARI standard: quantitative Presumed no ARI: 1320 feet away from all streams > 150 feet deep Applies to: all streams Quantitative: Withdrawal limited to percent reduction of Index Flow as specified in legislation (max 25%).

Date 7/9/2009 ARI standard: quantitative Presumed no ARI: Zone A or B in WWAT DEQ site specific review Applies to: all streams Quantitative: Withdrawal limited to percent reduction of Index Flow as specified in legislation (max 25%).

Requirements that Large Capacity Withdrawals (LCW) not cause an Adverse Resource Impact (ARI) Date 2/28/2006 2/28/2008 7/9/2008 2/1/2009 7/9/2009 ARI standard: narrative narrative narrative quantitative quantitative Presumed no ARI: 1320 feet away from 1320 feet away from 1320 feet away from 1320 feet away from Zone A or B in WWAT Trout Stream Trout Stream all streams all streams > 150 feet deep > 150 feet deep > 150 feet deep > 150 feet deep DEQ site specific review Applies to: Trout Streams all streams all streams all streams all streams Narrative: Shall not functionally impair a stream s ability to support characteristic fish populations. Quantitative: Withdrawal limited to percent reduction of Index Flow as specified in legislation (max 25%).

Registration Requirement New or increased > 100,000 gpd capacity Same as 2006 legislation New requirement: Demonstrate no ARI Screening tool or site-specific specific review 18 months to begin withdrawal

Zone A Zone B Zone C Zone D Zones are set by law Numerical values are different for each stream type

Zone A Withdrawal Register and proceed

Zone B Withdrawal Register and proceed Cold-transition system: site-specific specific review required DEQ notification: groups that have requested notification, such as: conservation district, regional planning agency

Zone C Site-specific review required Certify use of environmentally sound and economically feasible conservation measures DEQ notifies: large quantity users (of the same water source); and local governments and groups that have requested notification.

Zone D Site-specific review required Cannot proceed if confirmed in Zone D Potential for preventative measures

Triggers: Permitting > 2 million gpd capacity > 1 million gpd capacity in Zone C Use of preventative measure Transfer of > 100,000 gpd from watershed of one Great Lake to another Exemption: Less than 2 million gpd use over 90 day average Public involvement process

Permitting Standard No ARI Returned, less consumptive use, to source watershed In compliance with local, state and federal laws Reasonable under Michigan common law Certified compliance with conservation measures Will not violate public or private rights of Michigan water law

Annual Reporting Requirement Volume withdrawn on annual and monthly basis Source and location Consumptive use Beginning 2010: Acknowledge review of conservation measures

Transition Tool available for testing: 10/1/08 Begin accounting of withdrawals: 10/1/08 Effective date of new ARI standard: 2/1/09 Account for cumulative impacts: 2/1/09 Required use of tool for registration: 7/9/09

Specific Uses Municipal community system: ARI if no feasible and prudent alternative location Bottled Water: Permit threshold dropped to 200,000 gpd. No ARI Reasonable use Protect riparian rights Address hydrologic impacts Public involvement process

Future Directions Water User Committees Develop protective model for lakes Assessment of impacts to other ecological features