SBIR-STTR Award

Neodymium-Containing Single Crystals for Neutrinoless Double Beta Decay Detection
Award last edited on: 12/20/2013

Sponsored Program
SBIR
Awarding Agency
DOE
Total Award Amount
$849,900
Award Phase
2
Solicitation Topic Code
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Principal Investigator
Alfred Y Wong

Company Information

Nonlinear Ion Dynamics LLC

1017 Westholme Avenue
Panorama City, CA 91402
   (310) 927-8187
   awong@physics.ucla.edu
   N/A
Location: Single
Congr. District: 29
County: Los Angeles

Phase I

Contract Number: ----------
Start Date: ----    Completed: ----
Phase I year
2008
Phase I Amount
$99,900
Large quantities of certain separated isotopes, such as Ge-76, Se-82, Te-130, and Xe-136, are needed in radiation detector systems for rare particle and rare decay detection in nuclear physics research. Such needs cannot be addressed by existing isotope separation technologies, such as centrifuges and Calutrons. This project will develop an advanced Mirror-Enhance Plasma Separation Process (MPSP) for separating large quantities of needed isotopes efficiently and inexpensively. Although MPSP is based on the PSP (Plasma Separation Process) technique, it yields significantly higher efficiency and throughput. MPSP has been used to successfully separate 37Rb87 from the naturally occurring 27.83% to over 96%.

Commercial Applications and Other Benefits as described by the awardee:
In addition to the application for nuclear physics, stable isotopes are precursors for most of the medical radioactive isotopes used for diagnostic and therapeutic purposes. Stable isotopes also are used as specialized industrial materials in nuclear power plants (non-fuel), electronics, non-destructive testing, etc.

Phase II

Contract Number: ----------
Start Date: ----    Completed: ----
Phase II year
2009
Phase II Amount
$750,000
Large quantities of separated isotopes are needed for rare particle and rare decay detection in basic nuclear physics research. The demand for these isotopes cannot be met by existing inventory or through foreign supplies. Meanwhile, existing isotope separation technologies have limitations in cost and quantity. Therefore, this project will develop a next generation isotope separation technology, the Integrated Spin System (ISS), for producing large quantities of stable isotopes efficiently and economically. In Phase I, proof-of-concept was demonstrated experimentally through the separation of different gas species and gaseous isotopes. Engineering data showed that the ISS was adept in separating metallic isotopes directly, without the use of chemicals. In Phase II, a detailed engineering prototype will be designed and constructed, and the separation of large quantities of Ge-76, Xe-136 and other isotopes will be demonstrated.

Commercial Applications and Other Benefits as described by the awardee:
The use of stable isotopes is strategically important to the U.S., encompassing broad areas of scientific research, medical applications, and industries. The ISS would establish the first domestic stable isotope supply center and would insulate the country from geopolitical influences on foreign supplies