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Designing building envelope with PCM wallboards: Design tool development

Bastani, A., Haghighat, F. and Kozinski, J.
2014
Renewable and Sustainable Energy Reviews, Volume 31, March 2014, Pages 554-562
Phase change materials; Building envelope; Design; Thermal energy storage; Buildings


Bastani, A., Haghighat, F. and Kozinski, J., (2014), "Designing building envelope with PCM wallboards: Design tool development", Renewable and Sustainable Energy Reviews, Volume 31, March 2014, Pages 554-562.
Abstract:
While space conditioning load contributes largely in grid critical peak, shifting a part or full to the off-peak period could have significant economic effects on both energy supply and demand sides. This shifting technique is accomplished by storing energy during off-peak periods to be utilized during peak periods. The wallboard enhanced with PCM can provide latent heat thermal energy storage (TES) distributed in the whole surface area of the building envelope and evade the enhanced thermal mass in light weight buildings. Identifying the best design parameters of the PCM wallboard is the main key to apply this latent heat TES efficiently.

The effective dimensionless numbers on the thermal dynamics of a PCM wallboard were identified. Moreover, the impact of the change of those numbers on the time required for the wallboard to become fully charged was evaluated. This parametric study provided a tool to characterize the required thickness of a PCM wallboard which needs to be charged during the off-peak. The tool presents the Fourier number as a correlation of Biot number and Stefan number. Moreover, the impact of melting range on the charging time of a PCM wallboard was investigated.


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Author Information and Other Publications Notes
Bastani, A.
     
Haghighat, F.
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  3. Assessing long-term performance of centralized thermal energy storage system
  4. Best Practice for Architects and Engineers
  5. Centralized latent heat thermal energy storage system: Model development and validation
  6. Energy-Storing Wallboard: Flammability Tests
  7. Final Report, IEA, annex 23, applying energy storage in buildings of the future
  8. Measurement of diffusion coefficients of VOCs for building materials: review and development of a calculation procedure
  9. Modeling moisture accumulation in multi-layered building materials, MODELING MOISTURE IN RESIDENTIAL BUILDINGS WITH A MULTIZONE IAQ PROGRAM
  10. Modeling of phase change materials for applications in whole building simulation
  11. Modelling of volatile organic compounds emission from dry building materials
  12. Modified cup for testing of water vapour transmission through thick, permeable materials
  13. Optimization of ventilation system design and operation in office environment
  14. Zonal Models for Indoor Air Flow - A Critical Review  
Kozinski, J.
     



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