SBIR-STTR Award

Avalanche photodiode arrays
Award last edited on: 4/15/2002

Sponsored Program
SBIR
Awarding Agency
DOD : MDA
Total Award Amount
$603,372
Award Phase
2
Solicitation Topic Code
SDIO92-014
Principal Investigator
R Michael Madden

Company Information

Advanced Photonix Inc (AKA: Advanced Detectors~API~Xsirius Scientific Inc)

2925 Boardwalk Drive
Ann Arbor, MI 48104
   (734) 864-5600
   N/A
   www.advancedphotonix.com
Location: Single
Congr. District: 12
County: Washtenaw

Phase I

Contract Number: DASG60-92-C-0085
Start Date: 4/21/1992    Completed: 10/21/1992
Phase I year
1992
Phase I Amount
$51,353
This research will substantially advance the state of the art in single-chip photodetector arrays. Advanced Photonix, Inc. manufactures unique large-area, single-element silicon avalanche photodiodes (currently 16mm active-area diameter,but potentially up to 75mm). The research will demonstrate feasibility (Phase I) and produce a prototype (Phase II) of such a photodetector subdivided into an array of individually isolated "pixels". Each 1x1mm(2) pixel will have a gain of 1000 and a noise equivalent power (NEP) of 2x10(-15) W/Hz(1/2) at 800nm - about a factor of twenty better than conventional (gain=1) silicon photodetectors of the same pixel area. This innovation will permit breakthroughs in strategic defense applications, including the imaging laser radars in "brilliant" antimissile interceptors. Breakthroughs will also be possible in civilian applications, such as Positron Emission Tomography (PET) scanning, and optical fiber readout of high energy physics detectors.

Phase II

Contract Number: DASG60-93-C-0128
Start Date: 5/25/1993    Completed: 5/25/1995
Phase II year
1993
Phase II Amount
$552,019
This research will substantially advance the state of the art in single-chip photodetector arrays. Advanced Photonix, Inc. manufactures unique large-area, single-element silicon avalanche photodiodes (currently 16mm active-area diameter, but potentially up to 75mm). The research will demonstrate feasibility (Phase I) and produce a prototype (Phase II) of such a photodetector subdivided into an array of individually isolated "pixels". Each 1x1mm(2) pixel will have a gain of 1000 and a noise equivalent power (NEP) of 2x10(-15) W/Hz(1/2) at 800nm - about a factor of twenty better than conventional (gain=1) silicon photodetectors of the same pixel area. This innovation will permit breakthroughs in strategic defense applications, including the imaging laser radars in "brilliant" antimissile interceptors. Breakthroughs will also be possible in civilian applications, such as Positron Emission Tomography (PET) scanning, and optical fiber readout of high energy physics detectors.