SBIR/STTR Research Award

SBIR Phase I: Fast-Response, High Sensitivity MEMS based NOx Emission Sensor

Award identifier 83b40742167b0834a1e3cfa3e4e3920d1c7408412d5924073b978be6c9b2f2bcAwarding agency National Science Foundation

Award amount

$150,000

Program and phase

SBIR · Phase I

Award year

2009

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Award details

Awarding agency
National Science Foundation
Branch
Not reported
Recipient company
BOSTON MICROSYSTEMS INC
Proposal award date
Not reported
Contract end date
Not reported
UEI
Not reported
Solicitation number
NSF 08-548
Topic code
EL

Research abstract

This Small Business Innovation Research (SBIR) Phase I project demonstrates the technical feasibility of a Fast-Response, High Sensitivity MEMS based NOx Emission Sensor for Diesel and Other Lean Burn Engines. The innovation combines the company?s SiC-based MEMS piezoelectric bimorph microresonator chemical detection technology with a NOx sensor materials technology patented by MIT, to develop a NOx sensor needed for emissions control and capable of operation in harsh engine emissions environments. This will be accomplished by 1) formulating NOx-sensitive material compositions optimized for sensitivity, reversibility and long term stability, 2) developing deposition processes for integrating the NOx sensitive materials onto its MEMS resonators, and 3) developing high temperature compatible electrodes and packaging compatible with hot engine emissions. If successful the proposed NOx sensor will fill a strategic and unmet need allowing diesel engines to conform to new diesel engine emissions standards being implemented by the U.S. Environmental Protection Agency (EPA), European Union and Japan. The proposed program will develop and demonstrate highly innovative, sensitive and stable MEMS-based resonator sensor suitable for detecting NOx and ultimately other pollutants in high temperature and chemically aggressive engine emissions environments, and will position US industry for a leadership role in engine emissions NOx control. In order to meet these standards, automobile and truck manufacturers have turned to two after-treatment technologies that reduce tailpipe NOx emission levels. Both after-treatment technologies require NOx sensors, to 1) control the after treatment trap-regenerate cycle, and 2) to monitor after-treatment system performance, confirming proper NOx restriction or triggering the ?check engine? indicator. The NOx sensor will allow clean, energy efficient diesel engines to continue to replace gasoline engines, thereby reducing fuel consumption and carbon emissions without increasing NOx pollutants. Furthermore, as the NOx sensor and NOx remediation technologies are introduced into diesel automobiles, trucks, locomotives, diesel power generators etc., these systems will become cleaner providing significant value to society in the form of cleaner air, improved health and reduced medical costs.

Technology keywords

Not reported

Agency intelligence

National Science Foundation

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