Dept. of the Army -- Corps of Engineers
· Federal agency
Engineering with Nature Research Program - Microbial Induced Calcite Precipitation (MICP)
Background:There are hundreds of reservoirs and thousands of miles of navigation channels that provide invaluable flood control, commercial transport of materials, water stream flow regulation. This navigation and flood...
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Award$0–$150kDeadline1401 days agoLocationAlabamaTypegrantLevelFederalClosedposted Aug 18, 2022
✦ AI Summary
Who can apply: Federal-level applicants (see eligibility for details).
Funding amount: up to $150,000 (total pool ~$400,000).
Next deadline: October 17, 2022.
Issued by: Dept. of the Army -- Corps of Engineers.
The “key facts” mode pulls structured fields directly from the official source posting (amount, deadline, eligibility tags). The AI mode adds a short plain-English narrative on top, generated from the same source. Always verify with the agency before applying.
AI-generated. Always verify with the official source.
Who can apply — at a glance
Eligible applicants:
see the Eligibility tab for the criteria from the official announcement.
Where:
Alabama, Alaska, Arizona, Arkansas, California, Colorado, Connecticut, Delaware, Florida, Georgia, Hawaii, Idaho, Illinois, Indiana, Iowa, Kansas, Kentucky, Louisiana, Maine, Maryland, Massachusetts, Michigan, Minnesota, Mississippi, Missouri, Montana, Nebraska, Nevada, New Hampshire, New Jersey, New Mexico, New York, North Carolina, North Dakota, Ohio, Oklahoma, Oregon, Pennsylvania, Rhode Island, South Carolina, South Dakota, Tennessee, Texas, Utah, Vermont, Virginia, Washington, West Virginia, Wisconsin, Wyoming, District of Columbia.
Award:
$0–$150k.
Total program pool: $400,000.
Matching funds:
not required.
Deadline type: Fixed.
Compiled from the official listing's structured fields — always verify with the funder before applying.
Background:There are hundreds of reservoirs and thousands of miles of navigation channels that provide invaluable flood control, commercial transport of materials, water stream flow regulation. This navigation and flood control infrastructure protects millions of Americans who work and live beside these control structures. This protection of life and property is threatened by large-scale wildfires across the western United States” (Haring, et al. 2021). In 2021, 58,968 wildfires impacted 7.1 million acres and burned nearly 6,000 structures nationwide, 60% (3,577) of which were residences (USGS website). Also, in January 2018, directly following the nearby Thomas Fire, a storm struck in several landslides that killed 23 people. Wildfires damage watersheds by denuding landscapes, reducing infiltration rates, and increasing runoff rates. “Immediately following a vegetation, the organic soil horizons are reduced to ash, and the soil remaining is altered such that it repels [instead of absorbs] rainwater. These effects dramatically increase the potential for erosion, which destabilizes stream channels, and increases infilling of reservoirs thus reducing their capacity. Together these adverse ground conditions significantly increase transport, and subsequently increase the risks of flash flooding and destructive debris flows, as described above.” (Haring, et al 2021). As the climate has changed, fire seasons around the world have grown longer. According to Wibbenmeyer and McDarris (2020), the period from 2000-2018 was the driest 19-year span that southwestern North America has experienced since the late 1500s, and the second driest since 800 CE. These trends will only increase the likelihood of more wildfires and subsequent increased risks to our nation’s environment and flood protection infrastructure. The primary technical objective of this project is to provide a sustainable, nature-based and cost effective soil treatment technology for improving the mechanical properties of wildfire-altered soils, to decrease erosion. The treatment of interest is Microbial Induced Calcite Precipitation (MICP). Microbial-induced calcite precipitation (MICP) is a relatively new process that uses naturally occurring bacteria to bind soil particles together through calcium carbonate (CaCO3) precipitation. MICP is a biologically driven precipitation technology that is sustainable, does not introduce contaminants into the soil, and is not a high-energy process. The MICP treatment is a relatively new technique used by geotechnical engineers for ground improvement (strength) of sandy soils, like those in the western regions of the US.In theory, this method would also lessen the drying effects of drought on soils. The treatment increases water content of the soil, which deters erosion, slows runoff, and flash flooding. Brief Description of Anticipated Work: Determine the efficacy of MICP to improve engineering properties of soils affected by wildfires through conventional laboratory soil testing and through field demonstrations. To accomplish this, the following is anticipated: Literature review on MICP and effect of wildfires on soils. This research, performed only by the ERDC, will provide the basis for identifying the best type of soils and soil conditions for MICP treatment as well as defining the effects of wildfire on soils. Information will be acquired through discussion with USACE Districts that commonly experience wildfires in their regional area of jurisdiction. The activities discussed below will be undertaken by the contractor, with guidance and consideration by ERDC Principal Investigator. Activity 1: Identify the source(s) for soil sampling and testing. The contractor will consider ERDC’s findings from the literature research and start communication with ERDC and USACE Districts in the arid southwestern States and determine which wildfire affected site(s) will be researched.
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