Performance simulation of a solar- and pellet-based thermal system with low temperature heating solutions

The low energy consumption of new housing, together with low temperature space heating solutions, provides a great deal of potential for an improvement to the thermal and environmental performance of heat-generating technologies and heat loss reduction in heating systems. The objective of this work...

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Veröffentlicht in:Energy efficiency 2017-06, Vol.10 (3), p.729-741
Hauptverfasser: Žandeckis, A., Kirsanovs, V., Dzikēvičs, M., Kļaviņa, K.
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container_end_page 741
container_issue 3
container_start_page 729
container_title Energy efficiency
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creator Žandeckis, A.
Kirsanovs, V.
Dzikēvičs, M.
Kļaviņa, K.
description The low energy consumption of new housing, together with low temperature space heating solutions, provides a great deal of potential for an improvement to the thermal and environmental performance of heat-generating technologies and heat loss reduction in heating systems. The objective of this work is to evaluate the performance of a pellet and solar combisystem at different temperature ranges in a space heating (SH) system. The dynamic system simulation was performed in TRNSYS. Four SH temperature ranges will be assessed through different cases. For every SH temperature range, two cases were simulated—with and without an electric auxiliary heater. A system without solar collectors was used for the reference cases. The study will show that in the different cases, the reduction of the SH temperature allows for the reduction of temperature setpoints for the pellet boiler. A higher thermal performance of heat-generating technologies, lower heat losses and lower CO emissions can then be reached as a result. A further reduction of SH temperature will lead to slightly higher solar gains and a lower amount of total CO emissions. At the same time, higher heat losses from some components and lower or similar fractional thermal energy savings were observed.
doi_str_mv 10.1007/s12053-016-9482-3
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subjects Economics and Management
Emissions
Energy
Energy conservation
Energy consumption
Energy Efficiency
Energy Policy
Environment
Environmental Economics
Environmental performance
Heat
Heat loss
Heating
Heating systems
Loss reduction
Low temperature
Original Article
Performance evaluation
Renewable and Green Energy
Simulation
Solar collectors
Solar energy
Space heating
Sustainable Development
Thermal energy
Water heaters
title Performance simulation of a solar- and pellet-based thermal system with low temperature heating solutions
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