On the Technical, Economic, and Environmental Impact of Mobilized Thermal Energy Storage: A Case Study

Mobilized thermal energy storage (M-TES) systems present a viable alternative to traditional heating systems to meet the heat demands of dispersed consumers. This report uses a case study in Lebanon to provide a techno-economic evaluation of the M-TES system. The compatibility of M-TES with current heating systems was assessed by investigating the design specifications of the heating system. The results show that underfloor heating systems and fan coil heating systems are compatible with M-TES. Several operating schedules for M-TES were also developed, considering various transit methods. The study calculated the payback period (PBP) and net present value (NPV) for each case while estimating the costs and revenues for M-TES. Additionally, this study computed the quantity of CO2 emissions reduction for different M-TES configurations. The optimal operating strategy involves using two containers and three transportation cycles per day, achieving the highest NPV, a PBP of 3 years, and a yearly CO2 emissions reduction of 44,787.9 kg.

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Publication Details

Journal
Sustainability
Published
2025-03-13
DOI
https://doi.org/10.3390/su17062542
Citations
2
Primary Topic
Phase Change Materials Research
Type
article
Field-Weighted Citation Impact
1.43

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article

On the Technical, Economic, and Environmental Impact of Mobilized Thermal Energy Storage: A Case Study

Joseph Al Asmar, Chawki Lahoud, Christy Lahoud, Joseph Kesserwani
2 citations
Sustainability
Phase Change Materials Research
1.43
article

On the Technical, Economic, and Environmental Impact of Mobilized Thermal Energy Storage: A Case Study

Joseph Al Asmar, Chawki Lahoud, Christy Lahoud, Joseph Kesserwani
article en
2 citations

Abstract

Mobilized thermal energy storage (M-TES) systems present a viable alternative to traditional heating systems to meet the heat demands of dispersed consumers. This report uses a case study in Lebanon to provide a techno-economic evaluation of the M-TES system. The compatibility of M-TES with current heating systems was assessed by investigating the design specifications of the heating system. The results show that underfloor heating systems and fan coil heating systems are compatible with M-TES. Several operating schedules for M-TES were also developed, considering various transit methods. The study calculated the payback period (PBP) and net present value (NPV) for each case while estimating the costs and revenues for M-TES. Additionally, this study computed the quantity of CO2 emissions reduction for different M-TES configurations. The optimal operating strategy involves using two containers and three transportation cycles per day, achieving the highest NPV, a PBP of 3 years, and a yearly CO2 emissions reduction of 44,787.9 kg.

SustainabilityVol. 17(6)
University of Balamand (LB), Saint Joseph University (LB), Antonine University (LB)
Saint Joseph University
Openalex Percentile: Top 22%
Phase Change Materials Research
1.43
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