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The Accelerator in a Suitcase for Isotope Replacement

Award Information
Agency: Department of Homeland Security
Branch: N/A
Contract: HSHQDN-17-C-00007
Agency Tracking Number: HSHQDC-16-R-00012-H-SB016.1-013-0003-II
Amount: $999,969.45
Phase: Phase II
Program: SBIR
Solicitation Topic Code: H-SB016.1-013
Solicitation Number: HSHQDC-16-R-00012
Timeline
Solicitation Year: 2016
Award Year: 2017
Award Start Date (Proposal Award Date): 2017-09-26
Award End Date (Contract End Date): 2018-09-25
Small Business Information
5900 HARPER RD # 102
SOLON, OH 44139-1866
United States
DUNS: 079612770
HUBZone Owned: No
Woman Owned: No
Socially and Economically Disadvantaged: No
Principal Investigator
 Chunguang Jing
 Vice President of Engineering
 (440) 519-0410
 c.jing@euclidtechlabs.com
Business Contact
 David Dunnay
Title: Operations Manager
Phone: (440) 519-0410
Email: daved@euclidbeam.com
Research Institution
N/A
Abstract

Few-MeV linac-based X-ray machines are widely used for radiotherapy, cargo inspection, and industrial radiography. These machines are large, weighing several tons. Several years ago truck mounted systems extended the reach of this technology into field applications like bridge inspection. Recently man-portable systems were introduced, which typically are comprised of three modules that can be independently moved without heavy machinery and set up at the application location. Currently, there is no linac-based x-ray machine that can be carried around in a single compact piece to fit in tight spaces that can replace radioactive isotope - based devices in industrial radiography and well-logging. Euclid Beamlabs proposes an inexpensive, ultra-compact linac-based x-ray source that can fit in a suitcase as a possible replacement for radionuclides. This novel design is based on a dielectric accelerator. The use of ceramics makes the transverse size of the accelerating waveguide comparable to that of a pencil. Because of this size reduction, additional weight reduction of shielding becomes possible. In Phase I, based on this technology we have built and tested a 500 keV dielectric accelerator and additionally developed an engineering design of 1 MeV x-ray system ready for manufacturing in Phase II. This device will provide a novel functionality for the x-ray market. It will be compact and similar to the low-energy x-ray systems (e.g. dental x-ray). However, it will have higher energy x-rays due to a use of linac-based few-MeV electrons. Potential applications are radioactive isotopes replacement in radiography systems, active interrogation systems, and well logging.

* Information listed above is at the time of submission. *

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