SBIR/STTR Research Award
TOOLS FOR GENE-EXPRESSION STUDIES OF MALARIA
Award amount
$300,000Program and phase
SBIR · Phase IAward year
2001Award details
- Awarding agency
- Department of Health and Human Services
- Branch
- National Institutes of Health
- Recipient company
- ALDERON BIOSCIENCES, INC.
- Proposal award date
- Not reported
- Contract end date
- Not reported
- UEI
- Not reported
- Solicitation number
- Not reported
- Topic code
- Not reported
Research abstract
DESCRIPTION (Verbatim from Applicant's Abstract): A child dies of malaria every
twelve seconds. Hundreds of millions of all ages are infected annually. If
carried out aggressively, new initiatives for preventing and treating malaria
could soon save the lives of one-fourth of those children and could reduce the
suffering of millions - and could also eliminate the threat of renewed
outbreaks in temperate regions (including the U.S.). In support of those
initiatives, AndCare is proposing an expanded (12-month) SBIR-AT-NIAID Phase I
project to develop and apply in human studies innovative, highly sensitive
nucleic acid electrochemical sensor-array technology to determine pathogen gene
expression in human malarias.
The goals are to develop new sensors and sensor arrays in a microtiter-plate
format for direct, quantitative measurement of malarial gene expression in
multiple samples, and to demonstrate the utility of the sensor arrays for
gene-expression studies of human malaria. The main focus is on developing
advanced molecular tools for diagnosis, prevention, and treatment of infectious
diseases. Substantial Phase I work will address the need for high sensitivity,
innovative plate and instrument design, and performance evaluation to establish
system feasibility - with a focus on malaria as a model that illustrates the
power and sensitivity of this new tool for infectious-disease research.
PROPOSED COMMERCIAL APPLICATION:
When scientists can measure expression of genes that are unique to a stage of growth of
a particular microbe, drugs can be targeted to these genes or the products of these genes
can be incorporated into experimental vaccines. Success in this project will provide essential
new tools for efficient, economical, high-throughput gene-expression analysis to make this
process of drug targeting and vaccine development much more rapid and cost-effective. The
market that this technology ultimately will address is clearly a segment representing tens
of millions annually within a drug-discovery market that totals some $5 billion.
Technology keywords
Not reported