Using Thermal Mass and PCM to Shift Demand Off-Peak: A Paradigm Shift in Cold Storage Design

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作者
Black, R. Gary [1 ]
Cole, Raymond D. [2 ,3 ]
机构
[1] Univ Calif Berkeley, Dept Architecture, Berkeley, CA 94720 USA
[2] Axiom Engineers Inc, Monterey, CA USA
[3] ASHRAE Natl Refrigerat TEC Comm, Monterey, CA USA
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O414.1 [热力学];
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摘要
Cold storage facilities are likely not the first buildings that come to mind when thinking about high performance buildings. However, the number and size of these facilities are growing every year, in part due to a worldwide focus on improving the "cold chain" for perishable food products. For most cold storage facilities in temperate regions peak electricity consumption occurs during product harvest, which occurs in the summer and autumn months during daylight hours when temperatures and electricity prices are the highest. Because it is not feasible to shift cooling loads by changing the harvest operation or schedule, and because of a heightened interest by utilities and regulators in demand side load management, it seems imperative to question the efficacy of the refrigeration industry status quo construction type - the low-mass, insulated metal panel (IMP) building. With grant support from the Rural Energy for America Program (REAP), the authors designed and constructed a cold storage facility which uses a unique wall and refrigeration system that together reduce energy use and shift electrical demand to off-peak times of the day. The energy efficient wall employs structural concrete membranes wrapped around an R-100 insulated core. Enhanced thermally with phase change material (PCM), the thermal storage capacity of the wall is increased tenfold, theoretically enabling the facility to span a six hour peak-demand period without relying on conventional refrigeration. Load shifting is paramount to the increased reliability and efficiency of the energy grid. To this end, utility companies have implemented peak-pricing models and incentive programs to encourage energy users to shift off-peak. Calculations show that the completed building presented in this paper will reduce energy costs by 50% compared to industry standard, Title 24 construction, resulting in a simple payback for the added investment in less than four years.
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页数:8
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