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Deep Borehole Storage of Nuclear Waste using MMW Technology

Award Information
Agency: Department of Energy
Branch: N/A
Contract: DE-SC0012308
Agency Tracking Number: 212385
Amount: $150,000.00
Phase: Phase I
Program: STTR
Solicitation Topic Code: 21a
Solicitation Number: DE-FOA-0001046
Timeline
Solicitation Year: 2014
Award Year: 2014
Award Start Date (Proposal Award Date): 2014-06-09
Award End Date (Contract End Date): 2015-03-08
Small Business Information
5350 East 46th Street Suite 131
Rochester, NY 74135-6611
United States
DUNS: 141810494
HUBZone Owned: N
Woman Owned: N
Socially and Economically Disadvantaged: N
Principal Investigator
 Kenneth Oglesby
 (918) 627-8035
 kdo2@impact2u.com
Business Contact
 Patricia Oglesby
Title: Ms.
Phone: (918) 627-8035
Email: plo@impact2u.com
Research Institution
 MIT
 
167 Albany Street
Cambridge, MA 02139
United States

 Nonprofit college or university
Abstract

Deep borehole disposal of high level nuclear waste has been acknowledged by most experts as the best and safest method to permanently dispose the large volumes/ tons of such waste that have been generated (military and civilian) and surface stored over many decades at various sites around the country. Surface storage of such materials is not ideal. The cost of the required wells (drilling and completion) is estimated at $20-$40 million each and hundreds of such wells are needed for the volumes of waste amassed to date. Methods to lower cost and add additional layers of sealing barriers are desired as this disposal program advances. High energy millimeter wave (MMW) technology, in the 20 to 300 GHz frequency range that was developed for fusion energy research, can be efficiently transported through boreholes over long distances, to over 5 kilometer (16,500 feet) in depth, and can drill into hard crystalline rock formations. The impacted rocks (e.g. granites and basalts) will melt and form a solid, dense, impermeable glass melt seal in the wellbore for permanent entombment of any waste below. A new MMW drilling capability can drill smaller diameter, deeper boreholes to allow the use of higher vitrification waste loadings, reducing waste volumes and have a multiplicative effect on reducing the entire cost of nuclear waste disposal from processing to disposal. Phase I will include analysis of this approach and bench test experiments including at least one rock melt demonstration using a 10 kiloWatt (kW) MMW source to form a rock-melt plug/ seal in a pre-drilled rock bore. In addition, high temperature furnace melt tests on various materials will form the basis for later comparative testing to the standard cement. Phase II will further demonstrate MMW melting with the goal to determine the most optimal conditions to create solid impermeable melt plugs from various rock, metal and other materials. Furnace tests will be expanded to melt different materials for further improvements. Strength and permeability tests on the melt specimens are planned to compare to cements and other materials. Commercial Applications and Other Benefits: Commercialization of this technology can proceed rapidly after limited testing with a higher powered MMW source to confirm the findings from Phase II of this project. Commercial applications using the higher powered units include mining and tunneling through hard rock, drilling and lining wellbores, even very deep geothermal wells, hydraulic fracturing shales and geothermal granites, as well as permanently sealing nuclear wastes in deep rock vaults.

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

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