Formaldehyde Molecular Recognition Microsensor

Information

  • Research Project
  • 7480066
  • ApplicationId
    7480066
  • Core Project Number
    R43ES016685
  • Full Project Number
    1R43ES016685-01
  • Serial Number
    16685
  • FOA Number
    PA-06-09
  • Sub Project Id
  • Project Start Date
    5/15/2008 - 17 years ago
  • Project End Date
    4/30/2010 - 15 years ago
  • Program Officer Name
    HEINDEL, JERROLD
  • Budget Start Date
    5/15/2008 - 17 years ago
  • Budget End Date
    4/30/2009 - 16 years ago
  • Fiscal Year
    2008
  • Support Year
    1
  • Suffix
  • Award Notice Date
    5/5/2008 - 17 years ago

Formaldehyde Molecular Recognition Microsensor

[unreadable] DESCRIPTION (provided by applicant): This three-phase Small Business Innovation Research project addresses one the most significant problems in public health protection: monitoring of indoor air quality and controlling the ventilation systems in residential, office and industrial buildings. The development of a novel advanced microsensor for detecting gaseous formaldehyde in air is proposed. The sensing method utilizes the conductivity change induced, upon exposure to formaldehyde, in a layer of tin oxide. Cross-sensitivity to other volatile organic chemicals is eliminated by patterning of the tin oxide surface by an inert protecting layer with sub-nanometer pores, each shaped to selectively host a single formaldehyde molecule. Incorporation of this novel sensing material into a high-area nanostructured sensor platform will enable production of highly sensitive, selective, low-power, and low-cost formaldehyde microsensors. The Phase I project will demonstrate the feasibility of the proposed approach through fabrication of sensors and their comprehensive testing in conditions simulating contaminated indoor air. To ensure successful Phase II product development and Phase III commercialization, partnership has been secured with one of the leading developers of components and systems for energy applications. By combining coordination chemistry with nanotechnology and microfabrication, the proposed approach is likely to enable a novel family of low-cost highly sensitive and selective sensor systems for precise quantitative monitoring of human exposures to toxicants. Thus, the proposed research is highly relevant to the mission of the National Institute Of Environmental Health Sciences. [unreadable] [unreadable] Public Health Relevance: The project addresses one the most significant problems in public health protection: monitoring of indoor air quality and controlling the ventilation systems in residential, office, and industrial buildings. The development of novel advanced sensors for detecting formaldehyde - one of the most ubiquitous and dangerous for human health air contaminants - is proposed. The proposed technology will enable a novel family of high-performance and low-cost sensor systems for generating precise and quantitative measures of human exposure to harmful chemicals at the point of contact. [unreadable] [unreadable] [unreadable]

IC Name
NATIONAL INSTITUTE OF ENVIRONMENTAL HEALTH SCIENCES
  • Activity
    R43
  • Administering IC
    ES
  • Application Type
    1
  • Direct Cost Amount
  • Indirect Cost Amount
  • Total Cost
    98203
  • Sub Project Total Cost
  • ARRA Funded
  • CFDA Code
    113
  • Ed Inst. Type
  • Funding ICs
    NIEHS:98203\
  • Funding Mechanism
  • Study Section
    ZRG1
  • Study Section Name
    Special Emphasis Panel
  • Organization Name
    SYNKERA TECHNOLOGIES, INC.
  • Organization Department
  • Organization DUNS
  • Organization City
    LONGMONT
  • Organization State
    CO
  • Organization Country
    UNITED STATES
  • Organization Zip Code
    80503
  • Organization District
    UNITED STATES