Stirling engines for solar thermal energy and residential purposes

Research Article
Open access

Stirling engines for solar thermal energy and residential purposes

Zhengting Li 1* , Dinghonglun Lou 2 , Junhao Pan 3
  • 1 Hangzhou Dianzi University    
  • 2 Anhui University of Science and Technology    
  • 3 Shanghai Shangde Experimental School    
  • *corresponding author 20011713@hdu.edu.cn
Published on 25 September 2023 | https://doi.org/10.54254/2755-2721/11/20230219
ACE Vol.11
ISSN (Print): 2755-273X
ISSN (Online): 2755-2721
ISBN (Print): 978-1-83558-011-0
ISBN (Online): 978-1-83558-012-7

Abstract

The comparison and advantages with other engines and other aspects of Stirling engine in household appliances, to solve the problems caused by existing household appliances, realize the optimization of energy resources and achieve sustainability. A Stirling engine can work in reverse as a heat pump for heating or cooling if supplied with mechanical power. The ultra-low temperature refrigerator using the Stirling engine breaks through the traditional compressor refrigeration method in the noise, efficiency, energy consumption, stability, and other aspects of the long-term dilemma, creating a new situation of technological refrigeration. In the late 1930s, the Philips Corporation of the Netherlands successfully used the Stirling cycle in cryogenic applications. Experiments have been conducted using wind power driving a Stirling cycle heat pump for domestic heating and air conditioning. This paper mainly describes the application of the Stirling engine in household appliances and its advantages. The paper will explore the basic principle and efficiency of the Stirling engine and the use of household appliances.

Keywords:

Stirling engine, solar thermal energy, residential purpose, sustainability.

Li,Z.;Lou,D.;Pan,J. (2023). Stirling engines for solar thermal energy and residential purposes. Applied and Computational Engineering,11,118-122.
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References

[1]. Karandikar A, Berchowitz D 1996 New York Plenum Press

[2]. Dorman L 1975 Moscow Moscow State University Press 103

[3]. Caplar R and Kulisic P 1973 Amsterdam North-Holland/American Elsevier 517

[4]. Szytula A and Leciejewicz J 1989 Amsterdam Elsevier 133

[5]. Kuhn T 1998 London Chapman and Hall 6 173

[6]. Ahmadi M, Mohammadi A and Pourkiaei S 2016 International Journal of Ambient Energy 37 149

[7]. Jin D 2009 Harbin Engineering University Press

[8]. https://mr.baidu.com/r/WZKWwQfBO8?f=cp&u=3119cad7cecb0c4b

[9]. Zhou S, Wu H, Xiao C and Le L 2013 Micromotors 46 7

[10]. Stine W.B, Diver R.B 1994 R. Albuquerque Sandia National Labs

[11]. Liu J.M, Chen G, Zhang Q.C 2011 Solar Energy 181 23

[12]. Yu G.Y, Yang Q, Dai W 2010 Shanghai Special Type Engine Cent of Chinese Society for Internal Combustion Engines

[13]. Henry W 2007 New Delhi Indo-US Workshop on Power & Energy

[14]. Brehm P 2021 Kennewick R. Committee on Energy and Natural Resources U.S. Senate

[15]. Wang B, Zhang Y, Ye Z and Cou C 2018 Journal of Huazhong University of Science and Technology Natural Science Edition 46 106

[16]. Zhang Y, Zhou W, Le Y and Niu L 2002 Low Temperature and Specialty Gases 4 17

[17]. Le H 2022 Science and Technology Daily

[18]. Jiao K, Mu J and Chi C 2022 Cryogenics 249 1

[19]. Jia Z, Hu J and Zhang L 2020 Journal of Engineering Thermophysics 41 2134

[20]. Zhu C and Peng X 2011 Power & Energy 32 507

[21]. Li H, Shi L and Le Y 2010 Energy Resources Technology 31 228

[22]. Xu X, Le Y and Song H 2011 Applied Energy Technology 161 29

[23]. Stine W 1999 CRC Press LLC

[24]. Paul C and Engeda A 2015 Energy 80 85

[25]. Goswami D 1999 J. CRC Press LLC 8 31

Cite this article

Li,Z.;Lou,D.;Pan,J. (2023). Stirling engines for solar thermal energy and residential purposes. Applied and Computational Engineering,11,118-122.

Data availability

The datasets used and/or analyzed during the current study will be available from the authors upon reasonable request.

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About volume

Volume title: Proceedings of the 2023 International Conference on Mechatronics and Smart Systems

ISBN：978-1-83558-011-0(Print) / 978-1-83558-012-7(Online)
Editor：Alan Wang, Seyed Ghaffar
Conference website: https://2023.confmss.org/
Conference date: 24 June 2023
Series: Applied and Computational Engineering
Volume number: Vol.11
ISSN：2755-2721(Print) / 2755-273X(Online)

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References

[1]. Karandikar A, Berchowitz D 1996 New York Plenum Press

[2]. Dorman L 1975 Moscow Moscow State University Press 103

[3]. Caplar R and Kulisic P 1973 Amsterdam North-Holland/American Elsevier 517

[4]. Szytula A and Leciejewicz J 1989 Amsterdam Elsevier 133

[5]. Kuhn T 1998 London Chapman and Hall 6 173

[6]. Ahmadi M, Mohammadi A and Pourkiaei S 2016 International Journal of Ambient Energy 37 149

[7]. Jin D 2009 Harbin Engineering University Press

[8]. https://mr.baidu.com/r/WZKWwQfBO8?f=cp&u=3119cad7cecb0c4b

[9]. Zhou S, Wu H, Xiao C and Le L 2013 Micromotors 46 7

[10]. Stine W.B, Diver R.B 1994 R. Albuquerque Sandia National Labs

[11]. Liu J.M, Chen G, Zhang Q.C 2011 Solar Energy 181 23

[12]. Yu G.Y, Yang Q, Dai W 2010 Shanghai Special Type Engine Cent of Chinese Society for Internal Combustion Engines

[13]. Henry W 2007 New Delhi Indo-US Workshop on Power & Energy

[14]. Brehm P 2021 Kennewick R. Committee on Energy and Natural Resources U.S. Senate

[15]. Wang B, Zhang Y, Ye Z and Cou C 2018 Journal of Huazhong University of Science and Technology Natural Science Edition 46 106

[16]. Zhang Y, Zhou W, Le Y and Niu L 2002 Low Temperature and Specialty Gases 4 17

[17]. Le H 2022 Science and Technology Daily

[18]. Jiao K, Mu J and Chi C 2022 Cryogenics 249 1

[19]. Jia Z, Hu J and Zhang L 2020 Journal of Engineering Thermophysics 41 2134

[20]. Zhu C and Peng X 2011 Power & Energy 32 507

[21]. Li H, Shi L and Le Y 2010 Energy Resources Technology 31 228

[22]. Xu X, Le Y and Song H 2011 Applied Energy Technology 161 29

[23]. Stine W 1999 CRC Press LLC

[24]. Paul C and Engeda A 2015 Energy 80 85

[25]. Goswami D 1999 J. CRC Press LLC 8 31

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