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The home office is located 60 miles east of New York City near the Brookhaven
National Laboratory and Stony Brook University.
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BTG is a member of The United States Industry Coalition, Inc. (USIC), a
non-profit association of U.S. companies and universities dedicated to the
nonproliferation of weapons of mass destruction through commercialization of
technologies for peaceful purposes.
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Energy Storage
Nuclear Isomer Energy Storage Systems
BTG studies the use of nuclear isomers as energy-storage/energy-delivery
systems for defense and civilian applications. Nuclear isomers are
long-lived (> 1 ns) excited states of nuclei that release their excess
energy by electromagnetic decay. The nuclear state energy densities
stored in some isomers are 10^3 to 10^4 times higher per unit mass (~10^9
J/g) than for chemical systems. This leads directly to the possible
application on isomers as batteries to provide useful energy in space or
battlefield operations or as flash discharge devices to provide an
intense pulse of penetrating electromagnetic radiation. The utility of
isomers for energy storage depends on their half-life (T1/2 ~ 1 year or
greater) and net energy gain, and on the ability both to produce them
and to stimulate the release of their stored energy. BTG investigates
novel methods that could provide > 10^16 nuclei of the isomer 178m2-Hf in
a highly concentrated form for future triggering studies, and the
methods to produce and trigger other isomers that are candidates for
high density energy storage. Innovative triggering concepts using both
neutrons and fast-pulsed x-ray sources are studies both theoretically
and experimentally.

Other Energy Storage Technologies:
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BTG News
June 22, 2006
Brookhaven Technology Group, Inc., was awarded a new Phase I SBIR grant to develop an advanced surface plasma source for reliable long time production of H¯/D¯ beams with high brightness and high pulsed current and average intensity up to ~20mA. The principal goal of this project is to develop a high performance, long lifetime surface plasma H¯ source by using a unique new highly efficient helicon discharge plasma generator. The plasma flux formed by this helicon discharge will be used for surface plasma generation of H¯.
In Phase I, simulations of plasma generation, ion/atom conversion, and H¯/D¯ surface-plasma generation will be carried out to prove the feasibility of this new approach. The discharge system will be studied, beam extraction and formation including electron suppression will be designed, and computer simulated.
This is the third Phase I SBIR awarded to BTG for development of negative ion source technology. In previous years the company received Phase I and Phase II funding to design, build, and test a high brightness, long lived source of heavy negative ions (HNIS). This source is now available for commercialization. More information about the HNIS is available on this website.
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