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Award details
- Awarding agency
- Department of Energy
- Branch
- Not reported
- Recipient company
- INCOM, INC.
- Proposal award date
- 2022-08-22
- Contract end date
- 2024-08-21
- UEI
- CLS5D7LVF9A3
- Solicitation number
- Not reported
- Topic code
- C52-02b
Research abstract
Problem Being Addressed – Nuclear physics research has a need for fast neutron imaging of objects that are several mean-free-paths thick. For the associated particle imaging technique to work, sufficiently fast and high spatial resolution alpha-particle imaging is required. Alpha particles are generated in the fusion reaction that creates the neutron as well. By tracking the location and timestamp of these alpha particle detection events, one has information on the initial direction and creation time of that neutron. While conventional in-vacuum scintillators and air-side position-sensitive light sensors are up to the task, getting the light through the vacuum window without loss of spatial resolution remains a key challenge. This vacuum barrier must withstand high temperature vacuum bake, be made of materials compatible with welding to the neutron generator target assembly and maintain vacuum integrity for a workable neutron generator. Using fiberoptic faceplates that present a zero optical thickness approach and maintain spatial resolution is a demonstrated approach, but the component yield has been small and there is insufficient commercial interest due to the size of the current market.
How Problem is Being Addressed –Phase II development will demonstrate repeated feasibility for a 50mm success for the proposed application, Custom Fiber Optic plate (FOP) windows will be fabricated utilizing a fiber packing structure in a “half-hex” methodology and bonded to a mating alloy flange that will closely match the FOP’s coefficient of thermal expansion (CTE). Custom solid frit rings and upgraded facilities will establish Pilot production for 65mm FOP fritted to alloy flanges. Furthermore,this approach, along with developing a Hot Isostatic Pressing process to frit seal the matching CTE alloy flanges to a fiberoptic plate will help mitigate fracturing of frit seals in the final assembly. Stronger bonding from HIP fusing and closer matching CTE will allow the assembly to be welded into a stainless- steel housing and baked out at 350 C for an extended (>1 day) period without the loss of the vacuum.
Commercial Applications – A successful effort to develop a hermetic glass-metal seal for a 50mm & 65mm diameter fiber-optic faceplates that can withstand the rigors of neutron generator fabrication helps to advance the associated particle imaging (API) D-T neutron generator state-of-the-art.Thedevelopment of portable, high-output API D-T neutron generators can make neutron imaging a viable diagnostic tool for applications that require imaging of thick, dense objects with high-Z materials for which X-ray imaging is infeasible.
Technology keywords
Not reported
Other awards by this recipient
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Awards with the same topic code
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Research funding history
43 SBIR/STTR records share this UEI (1992–2025). Reported award amounts total $22,858,211. Reported amounts are not federal obligations.
Phases: Phase I, Phase II
Agencies: Department of Energy, National Science Foundation, National Aeronautics and Space Administration, Department of Health and Human Services
Agency intelligence
Department of Energy
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