SBIR-STTR Award

Optimization of Scintillators for Enhanced Performance through Materials Engineering
Award last edited on: 1/8/2020

Sponsored Program
SBIR
Awarding Agency
DOD : DTRA
Total Award Amount
$1,146,987
Award Phase
2
Solicitation Topic Code
DTRA182-007
Principal Investigator
Stacy Swider

Company Information

CapeSym Inc (AKA: Cape Simulations Inc.~CS)

6 Huron Drive Suite 1B
Natick, MA 01760
   (508) 653-7100
   info@capesym.com
   www.capesym.com
Location: Single
Congr. District: 05
County: Middlesex

Phase I

Contract Number: HDTRA119P0003
Start Date: 12/21/2018    Completed: 7/21/2019
Phase I year
2019
Phase I Amount
$150,000
The goal of this program is to produce radiation detector scintillators with enhanced-medium energy resolution of 2-3%, at costs approaching those of medium energy resolution detectors such as CsI.To achieve this goal, a two pronged approach will be pursued.First, we will employ materials engineering tools to improve the performance of an existing scintillator with superior attributes.Second, an innovative large scale growth process will be developed to substantially reduce the production cost of the scintillator.The cumulative effect of the two approaches promises to provide a low-cost, high performance scintillator that would change the landscape of handheld radiation detection market. The developed scintillators will be demonstrated in a Radio Isotope Identification Device (RIID) with a clear path towards rapid commercialization.radiation detection,scintillators,Mixed Halides,elpasolites

Phase II

Contract Number: HDTRA120C0035
Start Date: 5/13/2020    Completed: 5/12/2022
Phase II year
2020
Phase II Amount
$996,987
The goal of this program is low-cost production of large-volume radiation detector scintillators with enhanced-medium energy resolution of 2-3%, at costs approaching those of medium energy resolution detectors such as CsI. To achieve this goal, a two pronged approach will be pursued. First, we will employ materials engineering tools to improve the performance of an existing scintillator. Second, an innovative large scale growth process will be developed to both produce this superior scintillator in volumes larger than what is possible with current crystal growth methods, and to substantially reduce the production cost of the scintillators. The cumulative effect of the two approaches promises to provide a low-cost, high performance scintillator that would change the landscape of radiation detection market. The developed scintillators will be demonstrated in handheld Radio Isotope Identification Devices (RIIDs) as well as mobile and stationary radiation detection systems.