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Department of Defense FY 2003 Budget Estimate
Feburary 2002
RESEARCH, DEVELOPMENT, TEST AND EVALUATION, DEFENSE-WIDE
Volume 1 Defense Advanced Research Projects Agency
(p. 123)
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RDT&E BUDGET ITEM JUSTIFICATION SHEET
(R-2 Exhibit)
DATE: February 2002
APPROPRIATION/BUDGET ACTIVITY
RDT&E, Defense-wide … BA2 Applied Research
R-1 ITEM NOMENCLATURE: Biological Warfare Defense
PE 0602383E, R-1 #16
UNCLASSIFIED
- Evaluated the feasibility of additional strategies (e.g., exhaled breath) for direct identification or detection of infection without direct sample collection.
- Demonstrated the ability to perform accelerated patient diagnosis using a rapid single molecule DNA sequencing technique in a model system.
- Sensors. ($25.800 Million)
- Completed development and testing of first-generation prototype biochip sensor.
- Continued the development of effective and rapid chip-reading capability with enhanced sensitivity and low false alarm rate.
- Continued the development of advanced alternative technologies for live vs. dead bio-agent identification using peptides and other molecules.
- Developed hierarchical biochip sensors.
- Designed and tested techniques to replace antibody-based detection, such as short peptides, aptamers and lectins.
- Designed and tested novel reporting/transduction techniques such as ion channels.
- Designed and synthesized short peptide binding molecules for use in the detection of biological warfare agents.
- Evaluated ion channel sensor systems for use in the detection of biological warfare agents.
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Evaluated methods for removing micro-encapsulation of disguised pathogens and/or sensing through the micro-encapsulation.
- Developed technologies required for next-generation miniature biological detectors including the use of microelectromechanical systems (MEMS), microfluidics, and mesoscopic -sized components.
- Evaluated false positive and false negative rates for systems of detectors using biomolecular cells or tissues.
- Exploited and/or mimicked the olfactory sensors of biological systems for use in the detection of biological warfare agents.
- Demonstrated enhanced signal output from engineered cells and tissue based sensors and integrated information from these sensors with user interfaces for predictive responses.
- Engineered a deployable prototype cell and tissue sensor for field-testing.
- Evaluated sample collection technologies for cell and tissue sensors.
- Evaluated methods of cell stabilization for possible application to cell based sensors.
- Developed biosensor models and robust characterization protocols.
- Evaluated new resonant modes for biosensors.
- Investigated standoff techniques for trigger and identification.
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Anonymous comments …
The chemical analysis of the attack spores suggests that microencapsulation with a tin catalyzed silicone polymer was employed. Something that was not possible at Fort Detrick. Bruce Ivins could not have produced such a dry anthrax powder that was microencapsulated.
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