Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat

This paper presents a computer model that will evaluate the performance of a thermo-chemical accumulator. The model is based on operational data such as temperatures and flow rates. The ultimate goal for this model is to estimate the coefficient of performance (COP) of this unit when run on hot wate...

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Main Authors: Sacha Oberweis, Tariq Al-Shemmeri
Format: Article
Language:English
Published: MDPI AG 2012-10-01
Series:Applied Sciences
Subjects:
Online Access:http://www.mdpi.com/2076-3417/2/4/709
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spelling doaj-f852bfb7715847d79eb31faa503d0ec72020-11-24T20:44:30ZengMDPI AGApplied Sciences2076-34172012-10-012470972510.3390/app2040709Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste HeatSacha OberweisTariq Al-ShemmeriThis paper presents a computer model that will evaluate the performance of a thermo-chemical accumulator. The model is based on operational data such as temperatures and flow rates. The ultimate goal for this model is to estimate the coefficient of performance (COP) of this unit when run on hot water from biomass combustion as the heat source. The outputs of the model are verified by comparing the simulation of the actual machine with published experimental data. The computed results for cooling COP are within 10% of the measured data. The simulations are all run for heat load temperatures varying between 80 °C and 110 °C. As expected, simulation results showed an increase in COP with increased heat source temperatures. The results demonstrate that the potential of combined solar and biomass combustion as a heat source for absorption cooling/heating in climates with low solar radiation can be coupled with biomass waste.http://www.mdpi.com/2076-3417/2/4/709Lithium-Chlorideabsorptioncomputer modelbiomasswaste heat recovery
collection DOAJ
language English
format Article
sources DOAJ
author Sacha Oberweis
Tariq Al-Shemmeri
spellingShingle Sacha Oberweis
Tariq Al-Shemmeri
Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat
Applied Sciences
Lithium-Chloride
absorption
computer model
biomass
waste heat recovery
author_facet Sacha Oberweis
Tariq Al-Shemmeri
author_sort Sacha Oberweis
title Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat
title_short Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat
title_full Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat
title_fullStr Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat
title_full_unstemmed Performance Evaluation of a Lithium-Chloride Absorption Refrigeration and an Assessment of Its Suitability for Biomass Waste Heat
title_sort performance evaluation of a lithium-chloride absorption refrigeration and an assessment of its suitability for biomass waste heat
publisher MDPI AG
series Applied Sciences
issn 2076-3417
publishDate 2012-10-01
description This paper presents a computer model that will evaluate the performance of a thermo-chemical accumulator. The model is based on operational data such as temperatures and flow rates. The ultimate goal for this model is to estimate the coefficient of performance (COP) of this unit when run on hot water from biomass combustion as the heat source. The outputs of the model are verified by comparing the simulation of the actual machine with published experimental data. The computed results for cooling COP are within 10% of the measured data. The simulations are all run for heat load temperatures varying between 80 °C and 110 °C. As expected, simulation results showed an increase in COP with increased heat source temperatures. The results demonstrate that the potential of combined solar and biomass combustion as a heat source for absorption cooling/heating in climates with low solar radiation can be coupled with biomass waste.
topic Lithium-Chloride
absorption
computer model
biomass
waste heat recovery
url http://www.mdpi.com/2076-3417/2/4/709
work_keys_str_mv AT sachaoberweis performanceevaluationofalithiumchlorideabsorptionrefrigerationandanassessmentofitssuitabilityforbiomasswasteheat
AT tariqalshemmeri performanceevaluationofalithiumchlorideabsorptionrefrigerationandanassessmentofitssuitabilityforbiomasswasteheat
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