Energy consumption for commercial building cooling accounts for 15% of all commercial building’s electricity usage [1]. Electric utility companies charge their customers time of use consumption charges ($/kWh) and additionally demand usage charges ($/kW) to limit peak energy consumption and offset their high operating costs. Thus, there is an economic incentive to reduce both the electricity consumption charges and demand charges by developing new energy efficient technologies. Thermal energy storage (TES) systems using a phase change material (PCM) is one such technology that can reduce demand charges and shift the demand from on-peak to off-peak rates. Ice and chilled water have been used in thermal storage systems for many decades, but they have certain limitations, which include a phase change temperature of 0 degrees Celsius and relatively low thermal conductivity in comparison to other materials, which limit their applications as a storage medium. To overcome these limitations, a novel phase change composite (PCC) TES material was developed that has much higher thermal conductivity that significantly improves the charge / discharge rate and a customizable phase change temperature to allow for better integration with HVAC systems. Compared to ice storage, the PCC TES system is capable of very high heat transfer rate and has lower system and operational costs. Economic analysis was performed to compare the PCC TES system with ice system and favorable economics was proven. A 4.5 kWh PCC TES prototype system was also designed for testing and validation purpose.
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19 January 2018
PHYSICS OF SUSTAINABLE ENERGY IV (PSE IV): Using Energy Efficiently and Producing it Renewably
17–18 June 2016
Chicago, IL, USA
Research Article|
January 19 2018
Thermal energy storage for smart grid applications
Said Al-Hallaj;
Said Al-Hallaj
a
Department of Chemical Engineering, University of Illinois at Chicago
, Chicago, IL 60607, USA
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Siddique Khateeb;
Siddique Khateeb
b
AllCell Technologies, LLC
, USA
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Ahmed Aljehani;
Ahmed Aljehani
a
Department of Chemical Engineering, University of Illinois at Chicago
, Chicago, IL 60607, USA
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Mike Pintar
Mike Pintar
c
NETenergy
, Canada
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Corresponding author:SAIHallaj@allcelltech.com
AIP Conf. Proc. 1924, 020007 (2018)
Citation
Said Al-Hallaj, Siddique Khateeb, Ahmed Aljehani, Mike Pintar; Thermal energy storage for smart grid applications. AIP Conf. Proc. 19 January 2018; 1924 (1): 020007. https://doi.org/10.1063/1.5020287
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