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Project Luna Succendo: The Lunar Ev...

Bess, John Darrell.

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Project Luna Succendo: The Lunar Evolutionary Growth-Optimized (LEGO) Reactor.

紀錄類型:	書目-語言資料,印刷品 : Monograph/item
正題名/作者:	Project Luna Succendo: The Lunar Evolutionary Growth-Optimized (LEGO) Reactor./
作者:	Bess, John Darrell.
面頁冊數:	271 p.
附註:	Source: Dissertation Abstracts International, Volume: 69-02, Section: B, page: 1301.
Contained By:	Dissertation Abstracts International69-02B.
標題:	Energy. -
電子資源:	http://pqdd.sinica.edu.tw/twdaoapp/servlet/advanced?query=3301418
ISBN:	9780549464051

Project Luna Succendo: The Lunar Evolutionary Growth-Optimized (LEGO) Reactor.
Bess, John Darrell.

Project Luna Succendo: The Lunar Evolutionary Growth-Optimized (LEGO) Reactor. - 271 p.

Source: Dissertation Abstracts International, Volume: 69-02, Section: B, page: 1301.

Thesis (Ph.D.)--The University of Utah, 2008.

A final design has been established for a basic Lunar Evolutionary Growth-Optimized (LEGO) Reactor using current and near-term technologies. The LEGO Reactor is a modular, fast-fission, heatpipe-cooled, clustered-reactor system for lunar-surface power generation. The reactor is divided into subcritical units that can be safely launched within lunar shipments from the Earth, and then emplaced directly into holes drilled into the lunar regolith to form a critical reactor assembly. The regolith would not just provide radiation shielding, but serve as neutron-reflector material as well. The reactor subunits are to be manufactured using proven and tested materials for use in radiation environments, such as uranium-dioxide fuel, stainless-steel cladding and structural support, and liquid-sodium heatpipes. The LEGO Reactor system promotes reliability, safety, and ease of manufacture and testing at the cost of an increase in launch mass per overall rated power level and a reduction in neutron economy when compared to a single-reactor system.

ISBN: 9780549464051Subjects--Topical Terms:

876794
Energy.

Project Luna Succendo: The Lunar Evolutionary Growth-Optimized (LEGO) Reactor.
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520 $a A final design has been established for a basic Lunar Evolutionary Growth-Optimized (LEGO) Reactor using current and near-term technologies. The LEGO Reactor is a modular, fast-fission, heatpipe-cooled, clustered-reactor system for lunar-surface power generation. The reactor is divided into subcritical units that can be safely launched within lunar shipments from the Earth, and then emplaced directly into holes drilled into the lunar regolith to form a critical reactor assembly. The regolith would not just provide radiation shielding, but serve as neutron-reflector material as well. The reactor subunits are to be manufactured using proven and tested materials for use in radiation environments, such as uranium-dioxide fuel, stainless-steel cladding and structural support, and liquid-sodium heatpipes. The LEGO Reactor system promotes reliability, safety, and ease of manufacture and testing at the cost of an increase in launch mass per overall rated power level and a reduction in neutron economy when compared to a single-reactor system.
520 $a A single unshielded LEGO Reactor subunit has an estimated mass of approximately 448 kg and provides 5 kWe using a free-piston Stirling space converter. The overall envelope for a single unit with fully extended radiator panels has a height of 8.77 m and a diameter of 0.50 m. The subunits can be placed with centerline distances of approximately 0.6 m in a hexagonal-lattice pattern to provide sufficient neutronic coupling while allowing room for heat rejection and interstitial control. A lattice of six subunits could provide sufficient power generation throughout the initial stages of establishing a lunar outpost. Portions of the reactor may be neutronically decoupled to allow for reduced power production during unmanned periods of base operations. During later stages of lunar-base development, additional subunits may be emplaced and coupled into the existing LEGO Reactor network Future improvements include advances in reactor control methods, fuel form and matrix, determination of shielding requirements, as well as power conversion and heat rejection techniques to generate an even more competitive LEGO Reactor design. Further modifications in the design could provide power generative opportunities for use on other extraterrestrial surfaces such as Mars, other moons, and asteroids.
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