Ecopump: a novel thermoelectric heat pump/heat recovery ventilator system for domestic building applications

Author:

Xu Qi1,Zhang Shihao1,Riffat Saffa1

Affiliation:

1. Department of Architecture and Built Environment, Faculty of Engineering, University of Nottingham, NG7 2RD University Park, Nottingham, UK

Abstract

Abstract In recent years, there has been a risen interest in heat recovery systems for building applications due to concerns about the energy crisis and global climate change. In this paper, the intention to understand the performance of a window thermoelectric heat pump/heat recovery system (Ecopump) for heating has been developed. An overview to the prototype design, heat transfer model, experimental parameters and environmental feasibility is discussed. The variation of MATLAB modelling results followed the same regularity as the experimental results. The MATLAB model along with Revit has been used to simulate the Ecopump’s performance when installed in a sustainable house in the UK. From the calculation, Ecopump can provide 670 kWh heating energy and reduce 90.6 kg CO2 emissions per year. The proposed Ecopump system combined with window frame could be a promising technology to enhance space heating for domestic buildings while reducing energy consumption during daily ventilation. Further in situ experiments should be conducted to explore its comprehensive performance in the future.

Publisher

Oxford University Press (OUP)

Subject

General Environmental Science,Architecture,Civil and Structural Engineering

Reference28 articles.

1. A 3-field earth-heat-exchange system for a school building in Imola, Italy: monitoring results;Chiesa;Renew Energy,2014

2. Direct expansion ground source heat pumps for heating and cooling;Omer;Int Res J Eng,2013

3. global status report;REN21 Secretariat;Renewables Glob Status Rep,2020

4. English Housing Survey;Ministry of Housing Communities & Local Government;Energy efficiency,2019

5. Performance evaluation of a thermoelectric ventilation system driven by the concentrated photovoltaic thermoelectric generators for green building operations;Cai;Renew Energy,2020

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