Functionalized Nano-Film Microchannel Plate: A Single High Aspect Ratio Device for High Resolution, Low Noise Astronomical Imaging

Award Information
Agency:
National Aeronautics and Space Administration
Branch
n/a
Amount:
$99,660.00
Award Year:
2010
Program:
SBIR
Phase:
Phase I
Contract:
NNX10CD59P
Agency Tracking Number:
094270
Solicitation Year:
2009
Solicitation Topic Code:
S1.05
Solicitation Number:
n/a
Small Business Information
Arradiance, Inc.
142 North Road, Sudbury, MA, 01776-1122
Hubzone Owned:
N
Socially and Economically Disadvantaged:
N
Woman Owned:
N
Duns:
168792260
Principal Investigator:
Neal Sullivan
Principal Investigator
(800) 659-2970
nsullivan@arradiance.com
Business Contact:
Kenneth Stenton
Business Official
(978) 369-8291
kstenton@arradiance.com
Research Institution:
n/a
Abstract
The proposed innovation is to apply proven nano-film technology to enable Microchannel plate (MCP) devices to be manufactured on a range of insulating substrates and devices which possess sufficiently high gain and low ion feedback to replace chevron stacks in current NASA detector technologies. Commercial MCP devices have many desirable properties, such as sensitivity to small amounts of light and excellent position and timing resolution. MCP production is a mature technology, based largely on techniques and materials developed in the 1970's, and is limited to small area devices. Limitations due to the bulk glass manufacturing technology adversely impact many applications and impair manufacturability. For example, heavy metal impurities contained within the bulk glass of the MCP limit the achievable dark noise in low signal detection. In MCP manufacturing, the requisite batch processing restricts flexibility to tailor individual device or small batch performance to specific applications and can often result in poor MCP yield due to variations in composition and poor process control. In this proposal, we will utilize atomic layer deposition (ALD) of nanometer thin films which has been proven to replicate and improve the component functions of secondary electron emission (SEE) and conductivity on non-traditional glass substrates, to investigate the high gain and low ion feedback capabilities of this technology. We estimate that the technology stands at TRL 2 at the and expect to be at 4 at end of the Phase 1 contract.

* information listed above is at the time of submission.

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