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* [[Hybrid photovoltaic-trigeneration systems]] | * [[Hybrid photovoltaic-trigeneration systems]] | ||
* [[Performance of U.S. hybrid distributed energy systems: Solar photovoltaic, battery and combined heat and power]] | * [[Performance of U.S. hybrid distributed energy systems: Solar photovoltaic, battery and combined heat and power]] | ||
*[[Emerging economic viability of grid defection in a northern climate using solar hybrid systems]] | * [[Emerging economic viability of grid defection in a northern climate using solar hybrid systems]] | ||
* [[Economic viability of captive off-grid solar photovoltaic and diesel hybrid energy systems for the Nigerian private sector]] | * [[Economic viability of captive off-grid solar photovoltaic and diesel hybrid energy systems for the Nigerian private sector]] | ||
* [[The Potential for Grid Defection of Small and Medium Sized Enterprises Using Solar Photovoltaic, Battery and Generator Hybrid Systems]] | |||
{{Solar navbox}} | {{Solar navbox}} | ||
Revision as of 00:46, 10 December 2019
Source
- Amir H. Nosrat, Lukas G. Swan, Joshua M. Pearce, Simulations of greenhouse gas emission reductions from low-cost hybrid solar photovoltaic and cogeneration systems for new communities, Sustainable Energy Technologies and Assessments, Volume 8, December 2014, Pages 34-41. http://dx.doi.org/10.1016/j.seta.2014.06.008 open access
Abstract
Recent work has shown that small-scale combined heat and power (CHP) and solar photovoltaic (PV) technologies have symbiotic relationships, which enable coverage of technical weaknesses while providing the potential of significant greenhouse gas emission reductions at the residential level. With the reductions in the cost of PV systems and the increasing maturity of CHP systems an opportunity exists for widespread commercialization of the technology, particularly for new construction. In order to determine the potential for this opportunity and to optimize the design of PV–CHP systems for greatest emission and cost reductions in the residential context a simulation, an optimization model has been developed using multiobjective genetic algorithms called the Photovoltaic-Trigeneration Optimization Model (PVTOM). In this paper, PVTOM is applied to emission-intensive and rapidly growing communities of Calgary, Canada. Results consistently show decreases in emissions necessary to provide both electrical and thermal energy for individual homes of all types. The savings range from 3000–9000 kg CO2e/year, which represents a reduction of 21–62% based on the type of loads in the residential household for the lowest economic cost hybrid system. These results indicate that hybrid PV–CHP technologies may serve as replacements for conventional energy systems for new communities attempting to gain access to emission-intensive grids.
Keywords
Photovoltaic;Cogeneration;Combined heat and power;Energy conservation measures;Energy
See also
- PVTOM
- PVTOM Operation Instructions
- PV and CHP Literature review
- PV and CHP hybrid systems
- Hybrid photovoltaic-trigeneration systems
- Performance of U.S. hybrid distributed energy systems: Solar photovoltaic, battery and combined heat and power
- Emerging economic viability of grid defection in a northern climate using solar hybrid systems
- Economic viability of captive off-grid solar photovoltaic and diesel hybrid energy systems for the Nigerian private sector
- The Potential for Grid Defection of Small and Medium Sized Enterprises Using Solar Photovoltaic, Battery and Generator Hybrid Systems
