The goal of the project is the development of an overall strategy for reduction of turbidity/TSS, with sets of sediment reduction initiatives and actions for various sources, to address the Minnesota River Turbidity TMDL and the South Metro Mississippi River TSS TMDL.
This project will work with the MPCA to conduct watershed pollutant load monitoring at four sites in the Chippewa River watershed and one site in the neighboring Pomme de Terre River watershed . The Chippewa River Watershed Project (CRWP) team will also aid the MPCA in measuring and comparing regional differences and long-term trends in water quality. The goal is to collect quality data and complete load calculations for the five sites using the MPCA's established protocols.
The goal of this project is to perform water quality monitoring and load calculation duties to accomplish MPCA's Watershed Pollutant Load Monitoring Network monitoring efforts at seven sites for the Redwood and Cottonwood River watersheds as well as the Minnesota River site near Morton.
This project will monitor six sites within the Minnesota River Basin: Hawk Creek near Maynard, Hawk Creek near Granite Falls, Beaver Creek near Beaver Falls, Yellow Medicine River near Granite Falls, Yellow Medicine River near Hanley Falls, and Spring Creek near Hanley Falls. The sites will be monitored according to MPCA’s Major Watershed Load Monitoring (WPLMN) Standard Operating Procedure, which is the procedure being followed for sites currently monitored by the Hawk Creek Watershed Project (HCWP).
This project will provide condition monitoring and problem investigation monitoring at the following sites.
Mississippi River: Tributaries include Bassett Creek, Cannon River, Crow River, and Minnehaha Creek.
Minnesota River: Tributaries include Eagle Creek,Riley Creek, and Valley Creek tributary to the St. Croix River
This grant to the City of Morris provides public improvements for the beneficial use of wastewater effluent, where beneficial use is defined as the use of stormwater or wastewater effluent from a publicly owned wastewater treatement plant to replace the use of groundwater.
This project will develop a watershed approach plan, including impaired waters allocations, for the Mustinka Watershed, located at the headwaters of the Red River of the North, in western Minnesota, lying partly in Grant, Stevens, Ottertail, Big Stone, and Traverse counties. The watershed approach plan will set water quality goals for the watershed, recommend allocations for achieving total maximum daily loads where waters do not meet state standards and are listed as impaired.
The purpose of this project is to create a shared plan for the Watershed Restoration and Protection Strategy (WRAPS) process with roles, responsibilities, commitments and deliverables clearly understood by all (MPCA, CRWP and local partners). The Minnesota Pollution Control Agency (MPCA) and the Chippewa River Watershed Project (CRWP) will be working together to ascertain the level of involvement that local units of government and other partners (local partners) want to engage in for the second round of the WRAPS process.
The purpose of this project is to create a shared plan for the Watershed Restoration and Protection Strategy (WRAPS) process with roles, responsibilities, commitments and deliverables clearly understood by all (Minnesota Pollution Control Agency (MPCA), Chippewa River Watershed, and local partners). The MPCA and the Chippewa River Watershed Project (CRWP) will be working together to ascertain the level of involvement that local units of government and other partners want to engage in for the second round of the WRAPS process.
This project will complete a comprehensive and sustainable Major Watershed Restoration and Protection Strategies report for the Chippewa River, its tributary streams, and the many lakes in the Chippewa River watershed that is understandable and adoptable by local units of government and residents.
The Chippewa River Watershed Project (CRWP) will work with the Minnesot Pollution Control Agency (MPCA) to conduct watershed pollutant load monitoring at four sites in the Chippewa River watershed and one site in the neighboring Pomme de Terre River watershed to aid the MPCA in measuring and comparing regional differences and long-term trends in water quality. Our goal is to collect quality data and complete load calculations for five sites using the MPCA's Watershed Pollutant Load Monitoring Network (WPLMN) established protocols.
The goal of the Chippewa River Watershed Protection project is to protect unimpaired areas of the watershed. This will be accomplished through education and outreach with landowners and through implementation of best management practices.
The Villa Park Wetland Restoration Project proposes sediment removal from 6 contiguous stormwater wetland treatment cells within the Villa Park Wetland system resulting in an additional 118lbs/yr of total phosphorus(TP) removal from water entering Lake McCarrons.
The Cottonwood River watershed is one of the last remaining watersheds to complete Cycle I of the Watershed Restoration & Protections Strategies (WRAPS) process. The scope of this project upon completion is have two reports developed; a Watershed Restoration and Protection Strategies report and a Total Maximum Daily Load (TMDL) for the entire watershed.
This project will conduct a 2017 revision of the South Fork Crow River, North Fork Crow River and Sauk River Watershed Hydrological Simulation Program FORTRAN (HSPF) models and review of the Pine River Watershed HSPF model.
The project goal is to conduct water chemistry monitoring at five subwatershed sites and two basin sites annually from 2016-2019, based on flow conditions, targeting runoff events using protocols defined in the Watershed Pollutant Load Monitoring Network (WPLMN) Standard Operating Procedures and Guidance. The data collected will be submitted to Minnesota Pollution Control Agency (MPCA) and used in the FLUX32 model for calculating pollutant loads.
This project willl complete a final TMDL document that will be submitted to EPA for approval. Document will include Lake Osakis, Clifford Lake, Faille Lake, and Smith Lake impairments. A final technical memorandum describing the elements of the model framework and any deviations from the recommended construction methodology will be also be provided with the submission of the watershed models.
This project will support a civic engagement cohort that will be offered in southwest Minnesota to foster partnering and build capacity of local government, organizations, and residents for effective civic engagement in water protection and restoration. This project will also build networks and the skill set of local resource professionals to do effective civic engagement work for water restoration and protection. The cohort will be administered through the Minnesota River Board (MRB), established in 1995 with a goal of focusing water management efforts on the local level.
This project will complete a comprehensive study, following a rational, step-wise process of data analysis, response modeling and comparison to the water quality standards, followed by impairment diagnosis, modeling of improvement and protection options, and development of a WRAP Report and Implementation Plan for Sunfish lake, Thompson lake, Pickerel lake, and Rogers lake.
This project will finalize HSPF watershed model construction by incorporating internal phosphorus loading in modeled lakes, run a suite of implementation scenarios and generate a GenScn project containing model output. The consultant will produce HSPF watershed models that can readily be used to provide information to support conventional parameter TMDLs. The consultant will deliver all modeling files for baseline and implementation scenarios and provide a GenScn project containing model output.
This project will develop and execute three point source related scenarios for the Chippewa River watershed using an existing HSPF watershed model. This project will also support the review of the HSPF Modeling Guidance Document.
This project will establish a framework and provide tools for local government and watershed projects to engage the public in a manner that will lead to water quality improvement through targeted and prioritized implementation of watershed management practices. The major components of the watershed approach that will be used for this project include; monitoring, gathering of watershed information, assessment of the data, develop of implementation strategies, and implementation of water quality protection and restoration activities.
This project includes project planning, coordination, stream reconnaissance, and begins the effort towards civic engagement/outreach components of the South Fork Crow River Watershed project. Phase I will focus towards the development of project teams, identifying stakeholders, developing an initial civic engagement strategic plan and conducting limited lake and stream monitoring.
This project approach will include monitoring and gathering of watershed information, assess the data, develop implementation strategies to meet standards and protect waters, implement water quality protection and restoration activities in the watershed. The goal of this project is to establish a framework, and to provide information and tools for local government and watershed organizations to engage the public in a manner that will lead to water quality improvement.
This project will complete a pollutant source identification and subwatershed information report and support the development of a Draft Restoration and Protection Plan (RAPP). It will also support the devlopment of a Implementation Plan that will identify target areas for BMP implementation for bacteria reductions.
This project will complete spatial and temporal revisions , recalibration and validation of 7 watershed HSPF models. These fully functioning calibrated validated executable models will simulate hydrology, sediment (sand, silt, and clay), temperature, phosphorus, nitrogen, dissolved oxygen, biochemical oxygen demand, and algae at the 12-digit HUC subbasin scale (or finer).
This project will provide the MPCA, CCWD, and all other stakeholders the information and tools necessary to improve the water quality within Coon Creek Watershed District. The improvements will take place using targeted activities throughout the watershed to reduce the primary biological and chemical stressors. In turn, the reduction of these stressors will help to reduce overall loadings of sediment, turbidity, total phosphorus, and E. coli bacteria.
The goal of this project is to develop a phosphorus TMDL for the six impaired lakes in the southwest portion of the Rice Creek Watershed District; Island Lake, Little Lake Johanna, Long Lake, East Moore Lake, Pike Lake and Lake Valentine.
The primary focus of this project is the collection of lake core samples to aid in the completion of lake TMDLs for Dean, Malardi & Fountain lakes. This work will enable completing tasks included in the North Fork Crow River Watershed Restoration & Protection Project (WRPP). Additional data collection is needed to update lake response models. This new data will provide a cohesive and comprehensive data collection for Dean, Malardi and Fountain lakes.
This project will Install buffer strips along 25 miles of ditches in the watershed, replace 50 open tile intakes, and hold workshops in the watershed to increase conservation tillage, nutrient and pesticide management, conservation drainage and restoring wetlands.
This project will promote positive land use changes, along with a sense of watershed stewardship and awareness throughout the Crow River Watershed. This project contains three main tasks: BMP installation, public outreach and administration. This project will also work with the Big Swan Lake Association in Meeker County to host a shoreline naturalization workshop.
This project will offer incentives to protect 80 acres of land in filter strips and highly erodible lands adjacent to the rivers; construct 9 sediment and water control basins or terraces; replace 35 open tile intakes and advocate wetland restorations and grassland easement programs; organize a Friendship Tour to bring together Minnesota farmers, county commissioners, farm organizations, local, state and federal agency personnel to experience the watershed, farming practices, discuss future project ideas and strengthen relationships; and upgrade 37 subsurface sewage treatment systems by off
This project will continue the offering of low-interest loans to citizens, some of whom may not be able to acquire funding otherwise, for upgrading 50 septic systems to ensure compliance with state rules. Grant funds will be used to administer the low-interest loan program.
This project will allow for outreach programs to engage interested citizens in protecting 200 acres of riparian buffer in the headwaters of the watershed, accounting for 1860 tons of sediment prevented from reaching surface waters each year the practices remain in place. The desired outcome would include 30 or more participants in the program, and to develop a more extensive volunteer base.
This project will provide timely surface water quality data from waters of concern to Minnesota Pollution Control Agency (MPCA). This data will be analyzed and compared to historic data from the same sampling locations. All locations are in the Douglas County portion of the Chippewa River Watershed. Sampling locations include six lakes: Little Chippewa, Devils, Moon, Moses, South Oscar, and Stowe; and one stream site: County Ditch 60.
BWSR will administer funding to eligible County projects that provide funds and other assistance to low income property owners to upgrade or replace Noncompliant Septic Systems. BWSR will also manage annual reporting completed by each County.
This project will maximize the utility and usefulness of three HSPF models that have been constructed and calibrated for hydrology. The contractor will identify and reduce parameterization errors in the following three HSPF models: 1) Buffalo River Watershed, 2 ) Thief River Watershed, 3) Bois de Sioux-Mustinka Watersheds. This will result, not only in a better hydrology calibration, but will also improve each of the models’ ability to more accurately estimate sediment and pollutant loads and concentrations.