SBIR/STTR Research Award

Low cost electronic detection of molecular aggregation for rapid drug development

Award identifier 353840046c5fe84e006386c3dfc7fc6de5b3ba97e4782d9b5b30c72323562c5aAwarding agency Department of Health and Human Services · National Institutes of Health

Award amount

$780,515

Program and phase

SBIR · Phase I

Award year

2015

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Award details

Awarding agency
Department of Health and Human Services
Branch
National Institutes of Health
Recipient company
Spectradyne LLC
Proposal award date
2015-09-30
Contract end date
2015-09-29
UEI
LDUHFUHN3EY7
Solicitation number
PA14-071
Topic code
NIBIB

Research abstract

DESCRIPTION provided by applicant Nanoparticles are ubiquitous yet notoriously difficult to detect and measure practical technologies for their characterization are effectively restricted to particles larger than about nanometers in diameter This limitation is acutely felt in the drug development industry Because aggregate drug particles in parenteral formulations elicit a severe immune response in some recipients their detection is a major safety concern for manufacturers and patients Millions of these critical tests are performed each year across the pharmaceutical industry and the lack of effective particle sizing technology significantly increases the time and cost of these tests a fold reduction in both time and reagents required for each test would be realized if molecular aggregates could be reliably detected at diameters of nanometers rather than nanometers Spectradyne will address this unmet need by commercializing an innovative particle sizing technology that completely changes the way submicron aggregates are detected and measured in the pharmaceutical industry The Spectradyne instrument will be capable of robust detection of individual particles as small as nanometers in diameter more than ten times smaller than existing commercially available methods with size discrimination better than enabling resolution of polydisperse samples and detection rates higher than particles per second fold faster than other commercially available methods The platform will comprise single use consumable nanofluidic cartridges and a compact benchtop instrument capable of controlling flow in the cartridge and performing electrical readout of particles as they flow through the sensor To accomplish these goals three specific aims will be met In Aim reliable and repeatable manufacture of the consumable nanofluidic cartridges will be demonstrated successful completion of this aim will define a viable path to mass manufacture of these components a critical requirement for the success of the technology In Aim an instrument prototype will be developed that is capable of automated control of fluid flow in the cartridge and electrical readout Success in Aims and will produce a reliable control system with which to systematically evaluate the performance of the technology Lastly in Aim the key performance metrics of the system will be characterized limit of detection linear dynamic range and measurement accuracy and precision The fully characterized instrument prototype will then be validated for use in drug development applications by analyzing authentic formulations provided by our collaborators in the pharmaceutical industry This technology will significantly reduce the time money and materials required for the development of new drug formulations in particular the detection of particle aggregation and reduce the overall time and cost of drug development PUBLIC HEALTH RELEVANCE All parenteral drug formulations must be continually tested for the formation of aggregate drug particles which are known to illicit severe immune responses in some recipients and which can require weeks or months to grow to a size large enough to be detected using currently available methods about nanometers in diameter This project will develop an innovative new technology that integrates state of the art nanofluidic technology with rapid electronic sensing in a practical compact instrument to reduce the minimum detectable particle size to below nanometers The ability to detect particles in this size range will enable fold reductions in both the time required to detect aggregation and the quantity of sample required for analysis thus greatly reducing the time and cost in this step of drug development

Technology keywords

Not reported

Other awards by this recipient

Verified by the same UEI. These are other public SBIR/STTR award pages, not a merged company record.

Awards with the same topic code

Verified by an exact topic code match. This is not a text-similarity match.

Research funding history

7 SBIR/STTR records share this UEI (2014–2020). Reported award amounts total $5,307,805. Reported amounts are not federal obligations.

Phases: Phase I, Phase II

Agencies: Department of Health and Human Services, National Science Foundation

Agency intelligence

Department of Health and Human Services

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