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Award details
- Awarding agency
- Department of Health and Human Services
- Branch
- National Institutes of Health
- Recipient company
- AXNANO LLC
- Proposal award date
- 2020-09-09
- Contract end date
- 2022-08-31
- UEI
- NMDVSFDSVCB4
- Solicitation number
- PA18-574
- Topic code
- 143
Research abstract
Project Summary/Abstract AxNano, LLC SBIR Fasttrack 2019
The EPA estimates that one out of every four Americans lives within three miles of a hazardous waste
site. To meet the growing need for remediating these contaminated sites, the US remediation market has been
increasing steadily since 2009, averaging 2-3% increases per year. The global environmental remediation
technology market is forecasted to expand to $80.5 billion in 2019. Remediation of contaminated sites can cost
upwards of millions of dollars and can last for decades, especially in challenging geological settings such as low
permeability (low-k) zones (e.g., clay and bedrock). Sites where contaminants are concentrated in low
permeability zones are a particular industry headache as these areas can serve as sub-surface “source zones”
providing slow release of contaminants into transmissive zones for decades of longer. Traditional, liquid-phase
remediation injections that are successfully used in more permeable areas, when applied to low-k zones often
result in only partial clean-up followed by chronic site management. Costly re-applications to address
rebounding (increases in contaminant concentration following remediation) and tailings (persistent non-zero
contaminant levels) are one of the biggest pain-points for environmental engineers. These rebounding and
tailings lead to increase liability, increased remediation cost, and long drawn-out remediation schemes. AxNano,
in collaboration with North Carolina Aandamp;T, has specially formulated their patented controlled release technology
to address these persistent low-k zones. RemRx® CRI, controlled release injectant, can be emplaced into low k
zones by hydraulic fracturing and provide sustained levels of ISCO reagents directly into the trapped
contaminated area with one/few applications to address these issues of rebounding and tailings.
AxNano has established prototypes and preliminary studies to support a Fasttrack SBIR program. Phase
I of the program will support the development RemRx® CRI, through bench-scale testing of prototypes in low-
k zone 2-D flow chambers and radius of influence estimation by computational modeling. Phase II aims to pilot-
scale demonstrate manufacturing the Phase I-validated MVP and field test at two sites in the Piedmont Region.
Field demonstrations will include comparison to straight oxidant performance. Data from pilot-scale
demonstration and computational modeling will be used to design full-scale deployments. AxNano will design
a full scale manufacturing process to support transition of the RemRxTM CRI technology to future large scale
deployment.
This technology development program leverages a unique intellectual property position to develop this
new RemRxTM family of products. The remediation and broader water/wastewater markets are complex, making
market uptake of new remediation technologies difficult. However, controlled release ISCO agents are of strong
interest. The AxNano Team is committed to achieving the successful commercialization of this high-impact
technology.Project Narrative
Hazardous chemicals released into the environment can get trapped in low permeability zones in the ground,
like clay or bedrock, contaminating drinking water sources or affecting indoor air quality for decades or longer.
Remediation of these low permeability zones is difficult using current methods and amendments, thus common
approaches are focused on treating fluxes from the areas instead of targeting the sources themselves. To meet
this need, AxNano LLC, is developing RemRxTM CRI, an injectable controlled-release in situ chemical oxidation
material that can be placed into low permeability zones via hydraulic fracturing, that will lower total project
cost, shorten the overall clean-up cycle, and decrease chronic human exposure resulting from hazardous
chemical releases.
Technology keywords
Not reported
Other awards by this recipient
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Research funding history
18 SBIR/STTR records share this UEI (2014–2026). Reported award amounts total $9,417,996. Reported amounts are not federal obligations.
Phases: Phase I, Phase II, Phase II – Direct to Phase II
Agencies: Department of Defense, Department of Health and Human Services, National Science Foundation, Department of Commerce, Environmental Protection Agency, National Aeronautics and Space Administration
Agency intelligence
Department of Health and Human Services
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