Page 246 - Beyond Decommissioning
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Experience and lessons learned                                    227

           light industrial to residential builds without planning permission. However, this right
           excludes situations subject to:
           l  transport and highways impacts;
           l  contamination risks;
           l  flooding risks; or
           l  whether the change of use would affect the provision of local industrial services
              (CMS, 2017).


           6.5.1 Ford reactor and building, MI, USA (U-M, 2015)
           The 2-MW, pool-type University of Michigan’s (U-M) Ford reactor went critical in
           1957. The reactor building consisted of thick reinforced concrete to accommodate its
           reactor and the 150-m3 reactor pool of demineralized water. After 46 years of
           incident-free operations, U-M permanently shut down the reactor in July 2003 as it
           was little used and was costing $1 million a year to run. The cost of decommissioning
           the reactor and decreasing activity levels to below the US Nuclear Regulatory Com-
           mission’s release criteria was $14 million.
              In December 2013, U-M’s Board of Regents approved the conceptual design for
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           the $11.4 million renovation and expansion to the four-story, 1600-m building. It will
           be renamed U-M’s Nuclear Engineering Laboratories.
              The inside of the building will be converted into student work areas, offices, and
           labs for the engineering school’s nuclear engineering and radiological sciences
           department. The department intends to use the building for research related to reac-
           tor safety and homeland security. For example, a planned thermohydraulics labo-
           ratory would simulate the heating around nuclear fuel bars, and new gamma-ray
           camera equipment would be developed to detect nuclear materials in shipping con-
           tainers or trucks. To this end, a particle accelerator will be used to produce neutrons
           and gamma rays for nonproliferation studies. On the historical side, the reactor’s
           original control console will be on display once the renovation is completed.


           6.5.2 Georgia Tech Reactor and building, GA, USA (WM, 2001)

           Located in Atlanta, the Georgia Institute of Technology is a leading research univer-
           sity committed to improving the human environment through advanced science and
           technology. The Frank H. Neely Nuclear Research Center, also known as the Neely
           Research Reactor and the Georgia Tech Research Reactor (GTRR) was a nuclear engi
           neering research center on the Georgia Institute of Technology campus, which had a
           5-MW heavy-water-cooled research reactor in operation from 1961 until 1996. The
           decommissioning process described here can be split into two phases: the reactor;
           and the reactor building and peripheral systems.
              After 30 years of reactor operations, Georgia Tech applied for a license renewal. As
           a part of the license renewal, the conversion of the reactor from high-enriched fuel to
           low-enriched fuel operation was planned. Because Georgia Tech was to serve as the
           Olympic Village and the venue for several sporting events during the 1996 Olympics,
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