It has been long recognized that human diseases often have preventable environmental components. With massive increases in environmental contaminations and the progressive deterioration of environmental quality, our global society is challenged to find faster, more effective measures of remediation of the natural resources to protect human health and environmental conditions. The overall and long-term objectives of this SBIR research are to develop new approaches that can cost-effectively destroy major contaminants in water resources while protecting the human life and ecosystem. Under Phase I funding, a series of batch, continuous column, and simulated model experiments were conducted to evaluate a new BPB/MicroBeads technology for treatment of perchlorate and TCE. Successful results obtained in Phase I will allow further development and validation of this new technology under the field conditions at Edwards Air Force Base (AFB). A distinguish feature of this new technology is the unique microencapsulation techniques coupled by engineering designs that can greatly enhance the rate and extend of contaminant biodegradation in groundwater. The Phase II research will be done via several tasks. In Task A, we will evaluate the field groundwater quality and site characteristics to develop the engineering design and operational parameters as well as the sampling and monitoring programs. Task B is designed to construct, install, optimize and operate a BPB/MicroBeads system to treat perchlorate and TCE in a shallow groundwater at Edwards AFB. Task C is designed to assess the performance of this new technology and identify/rectify any unforeseen difficulties under the field conditions. As part of this task, we will assess the effectiveness of nutrient (if any) and electron donor delivery systems. Task D is designed to obtain major design parameters, scale-up costs, and economic evaluation of the BPB/MicroBeads technology for a full-scale demonstration of this technology in Phase III. The outcome of this research will be a comprehensive evaluation of this new technology and the critical design and operational criteria. A complete analysis of the scale-up issues as well as the long-term performance of this new technology will be completed. Upon the successful completion of the pilot-scale demonstration in Phase II, a full-scale treatment unit will be supported by our Phase III partner, Edwards AFB. Project Narrative One of the major continuing risks to public health and environmental safety is the vast contamination of water resources (e.g., groundwater) and the lack of effective technologies to eliminate the contaminations and to protect the ecosystem and human health. As identified by National Institute of Environmental and Health Sciences (NIEHS), there is a great need for innovative technologies fro decontamination of water resources. This SBIR project is in direct response to this important initiative. Phase I funding supported the investigation, construction, and validation of a patented technology for successful treatment of two widespread contaminants in groundwater. In Phase II, we will develop this technology further and validate our discoveries of Phase I in a pilot-scale demonstration project. The broad and long-term objectives of this SBIR project are to develop a cost-effective technology for eliminating contaminants in the water resources while protecting environmental and human health.

Agency
National Institute of Health (NIH)
Institute
National Institute of Environmental Health Sciences (NIEHS)
Type
Small Business Innovation Research Grants (SBIR) - Phase II (R44)
Project #
5R44ES011880-05
Application #
7499096
Study Section
Special Emphasis Panel (ZRG1-BST-W (11))
Program Officer
Anderson, Beth
Project Start
2002-09-30
Project End
2010-09-24
Budget Start
2008-09-25
Budget End
2010-09-24
Support Year
5
Fiscal Year
2008
Total Cost
$316,123
Indirect Cost
Name
Microvi Biotech, Inc.
Department
Type
DUNS #
828139530
City
Hayward
State
CA
Country
United States
Zip Code
94545