IEA Solar Heating and Cooling Programm - NachhaltigWirtschaften.at
IEA Solar Heating and Cooling Programm - NachhaltigWirtschaften.at IEA Solar Heating and Cooling Programm - NachhaltigWirtschaften.at
IEA SHC Task 38 Solar Air Conditioning and Refrigeration Subtask C2-A, November 9, 2009 Reference projects INSEL has been used in several solar cooling projects, some examples are given below: • 55 kW solar desiccant cooling system with 244 m² ventilated PV-Façade, 330 m² ventilated PV-Roof sheds and 155 m² of solar air collectors in the Library of Mátaro (Spain). • 100 kW solar desiccant cooling system with 100 ² of solar air collectors and additional thermal energy delivered by a heat recovery system of the production process, installed in an production hall in Althengstett (Germany) • 15 kW solar absorption cooling system with 37 m² flat plate and 29 m² vacuum tube collectors, 2 m³ hot and 1 m³ cold storage tank, installed in an office building of the SolarNext AG (Germany) • Simulation based analysis of different control options for a 1.218 m² solar collector field which supplies the heating system of an office building in winter and three MYCOM adsorption chillers with a nominal cooling capacity of 353 kW, FESTO AG & C0. KG in Esslingen • Performance and economic analysis of a 140 kW absorption cooling system for a production hall with 2.500 m² conditioned space of the ft-fertigungstechnik GmbH in Viernheim, Germany Download A demonstration version of INSEL and a detailed tutorial can be downloaded from the following website: www.insel.eu page 20
IEA SHC Task 38 Solar Air Conditioning and Refrigeration Subtask C2-A, November 9, 2009 Chapter II: New developments in simulations tools and models A solar desiccant cooling installation model in SPARK, A transient detailed model of the desiccant wheel. Paul Bourdoukan LOCIE FRE CNRS 3220, Institut National de l'Energie Solaire (INES), Etienne Wurtz LOCIE FRE CNRS 3220, Institut National de l'Energie Solaire (INES), The present chapter presents a modelling approach of a solid desiccant air handling unit powered by vacuum tube solar collectors. It is divided into 3 sections. In section (1) the model of the installation is described by separately considering each component (i.e. sensible heat regenerator, desiccant wheel, evaporative coolers, solar collectors, storage tank). In the section (2) an experimental validation of the presented model is performed under different operating conditions on a component level and on a system level. Section (3) is dedicated for a transient model of the desiccant wheel. Unlike conventional models that give a mean temperature and a mean humidity ratio at the outlet of the wheel this detailed transient model gives the temperature and humidity profile at the outlet of the wheel. The model is then validated experimentally. The presented models with the experimental validation are a summary of different research work [1], [2], [3], [4] and [5] published recently and highlighted in the reference section. page 21
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<strong>IEA</strong> SHC Task 38 <strong>Solar</strong> Air Conditioning <strong>and</strong> Refriger<strong>at</strong>ion Subtask C2-A, November 9, 2009<br />
Reference projects<br />
INSEL has been used in several solar cooling projects, some examples are given below:<br />
• 55 kW solar desiccant cooling system with 244 m² ventil<strong>at</strong>ed PV-Façade, 330 m²<br />
ventil<strong>at</strong>ed PV-Roof sheds <strong>and</strong> 155 m² of solar air collectors in the Library of Mátaro<br />
(Spain).<br />
• 100 kW solar desiccant cooling system with 100 ² of solar air collectors <strong>and</strong> additional<br />
thermal energy delivered by a he<strong>at</strong> recovery system of the production process,<br />
installed in an production hall in Althengstett (Germany)<br />
• 15 kW solar absorption cooling system with 37 m² fl<strong>at</strong> pl<strong>at</strong>e <strong>and</strong> 29 m² vacuum tube<br />
collectors, 2 m³ hot <strong>and</strong> 1 m³ cold storage tank, installed in an office building of the<br />
<strong>Solar</strong>Next AG (Germany)<br />
• Simul<strong>at</strong>ion based analysis of different control options for a 1.218 m² solar collector<br />
field which supplies the he<strong>at</strong>ing system of an office building in winter <strong>and</strong> three<br />
MYCOM adsorption chillers with a nominal cooling capacity of 353 kW, FESTO AG &<br />
C0. KG in Esslingen<br />
• Performance <strong>and</strong> economic analysis of a 140 kW absorption cooling system for a<br />
production hall with 2.500 m² conditioned space of the ft-fertigungstechnik GmbH in<br />
Viernheim, Germany<br />
Download<br />
A demonstr<strong>at</strong>ion version of INSEL <strong>and</strong> a detailed tutorial can be downloaded from the<br />
following website: www.insel.eu<br />
page 20
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