• DOI:10.1080/19401490802596435
• Corpus ID: 109576810

Energy and carbon emission footprint of micro-CHP systems in residential buildings of different energy demand levels

@article{Dorer2009EnergyAC,
  title={Energy and carbon emission footprint of micro-CHP systems in residential buildings of different energy demand levels},
  author={Viktor Dorer and Andreas Weber},
  journal={Journal of Building Performance Simulation},
  year={2009},
  volume={2},
  pages={31 - 46}
}

• V. Dorer, A. Weber
• Published 19 February 2009
• Engineering, Environmental Science
• Journal of Building Performance Simulation

This article summarizes an evaluation of micro-CHP (MCHP) systems in residential buildings. To account for the dynamic interactions between MCHP devices, heat storage and loads, MCHP models integrated into building simulations tools were used, calibrated with either results from laboratory experiments or manufacturer data. Solid oxide and polymer electrolyte membrane fuel cell as well as Stirling and internal combustion engine devices were compared to reference systems with either gas boiler or ground-coupled heat pump, and utility electricity supply. The influence of different energy demand levels for space heating, domestic hot water and electricity, heat storage size, control parameter and MCHP capacity, and combinations with solar thermal collectors were analysed. With the European electricity mix, most MCHP systems showed primary energy and emission reductions in comparison with the gas boiler system. With the combined cycle power plant mix, the largest reductions resulted for the ground-coupled heat pump systems, however.