--- title: Case Study | Minnesota Aquatic Invasive Species Research Center Renovations image: https://info.burnsmcd.com/hubfs/ANF_UniversityMinnesota_16704/2019_MAISRC_Minnesota_Aquatic_Research_Center_025-1.jpg --- [![Burns and McDonnell](https://info.burnsmcd.com/hs-fs/hubfs/Burnsmcd_Dec2015_/Logo.png?width=320&height=48&name=Logo.png "Logo.png")](https://www.burnsmcd.com/?hsLang=en) - [What We Do](https://www.burnsmcd.com/what-we-do?hsLang=en) - [Insights & News](https://www.burnsmcd.com/insightsnews?hsLang=en) - [Careers](https://www.burnsmcd.com/careers?hsLang=en) - [About](https://www.burnsmcd.com/about?hsLang=en) CASE STUDY / MINNESOTA AQUATIC INVASIVE SPECIES RESEARCH CENTER RENOVATIONS ✖ ### READ Case Study # DESIGN SOLUTIONS ADDRESS MULTIPLE NEEDS FOR AQUATIC LABORATORY A Minnesota research center had been utilizing a 100-year-old space unsuitable for ecological experiments. In need of renovations to accommodate performance of critical studies, the laboratory required innovative design solutions taking research capabilities to the next level. ✖ ### Send Us a Note ### PROJECT STATS CLIENT University of Minnesota LOCATION St. Paul, Minnesota COMPLETION DATE 2016 ## CHALLENGE The Minnesota Aquatic Invasive Species Research Center (MAISRC), run by the University of Minnesota, uses biological and ecological research methods to determine ways to reduce the impacts of aquatic invasive species throughout Minnesota lakes and rivers. In order to perform more and flexible research ventures, the MAISRC Engineering and Fisheries Laboratory required renovations. This included a new water supply system, large tanks, environmental chambers and areas for pathogen studies.   # 11K SQUARE FOOT LABORATORY SPACE   # 5K SQUARE FOOT WASH-DOWN FACILITY ## SOLUTION The University of Minnesota’s design goal was to provide 220 gpm of water to experimental aquariums. To achieve this flow rate, the design required a new groundwater well feeding the water to 20 head tanks with the ability to mix to any temperature between 50 and 95 degrees Fahrenheit and distribute to six research bays. With these parameters in place, the research team can simulate summer, winter and shoulder season water temperatures. The water was provided in two supply headers — one heated and one ambient well temperature. Water discharged from the system was filtered prior to discharge to the sewer to prevent release of the organisms into the environment. The filtered solids required sterilization through chlorination prior to discharge to the sewer. The design included a modular curtain system to help darken the space for photo-isolation experiences, as well as a programmable lighting system to generate night and day simulations. Also included was physical security for the 11,000-square-foot facility, whose space was designed to include six fish tank bays, a plant laboratory, a zebra mussel laboratory, a fish pathogen laboratory and a wet chemistry laboratory. Also part of the project was a new 5,000-square-foot remote wash‑down facility for boats, trailers, nets and equipment. The design of the wash-down facility allowed for the collection of water to be transported for treatment in the effluent treatment system at the main research facility. Additional features: - Four environmental chambers with growth lights and temperature control. - Laboratory hood for chemical analysis. - Reverse osmosis deionization water system for the wet laboratory and environmental chambers. - Two freezers and a cooler for fish food and fish storage.   Read The Case Study ## SOLUTION The University of Minnesota’s design goal was to provide 220 gpm of water to experimental aquariums. To achieve this flow rate, the design required a new groundwater well feeding the water to 20 head tanks with the ability to mix to any temperature between 50 and 95 degrees Fahrenheit and distribute to six research bays. With these parameters in place, the research team can simulate summer, winter and shoulder season water temperatures. The water was provided in two supply headers — one heated and one ambient well temperature. Water discharged from the system was filtered prior to discharge to the sewer to prevent release of the organisms into the environment. The filtered solids required sterilization through chlorination prior to discharge to the sewer. The design included a modular curtain system to help darken the space for photo-isolation experiences, as well as a programmable lighting system to generate night and day simulations. Also included was physical security for the 11,000-square-foot facility, whose space was designed to include six fish tank bays, a plant laboratory, a zebra mussel laboratory, a fish pathogen laboratory and a wet chemistry laboratory. ![2019_MAISRC_Minnesota_Aquatic_Research_Center_027](https://info.burnsmcd.com/hubfs/ANF_UniversityMinnesota_16704/2019_MAISRC_Minnesota_Aquatic_Research_Center_027.jpg) ## Solution Also part of the project was a new 5,000-square-foot remote wash‑down facility for boats, trailers, nets and equipment. The design of the wash-down facility allowed for the collection of water to be transported for treatment in the effluent treatment system at the main research facility. Additional features: - Four environmental chambers with growth lights and temperature control. - Laboratory hood for chemical analysis. - Reverse osmosis deionization water system for the wet laboratory and environmental chambers. - Two freezers and a cooler for fish food and fish storage. ![2019_MAISRC_Minnesota_Aquatic_Research_Center_004-1](https://info.burnsmcd.com/hubfs/ANF_UniversityMinnesota_16704/2019_MAISRC_Minnesota_Aquatic_Research_Center_004-1.jpg) ## RESULTS The original laboratory, which was in a century-old rail facility, was not suitable. The renovated lab is flexible and adaptable for research needs and tank arrangements. Drain piping is no longer routed on the floor; this removes a safety hazard and reduces the need to relocate tanks and experiments. The new laboratory meets Minnesota Department of Natural Resources standards, allowing the MAISRC team to study various organisms from Asian carp to zebra mussels and one-of-a-kind aquatic plants. The research is used to help preserve the health of Minnesota lakes and rivers. 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