本研究建立一套理論模型預測史特靈熱泵製熱行為，並針對現有史特靈熱泵進行性能量測，同時進行機構上之設計改良。理論模型將熱泵分為膨脹室、吸熱器、再生器、放熱器、壓縮室以及水套等六個區間進行分析，並針對填充壓力、轉速、環境因素等參數影響進行探討。實驗方面則建立史特靈熱泵之溫度、壓力與性能之量測系統，最後透過理論與實驗結果進行比較，驗證理論模式的準確度並作為史特靈熱泵設計改良之參考方向。
本研究針對史特靈熱泵原型機進行實驗，驗證理論模型之準確性，在填充壓力為1 bar下，理論與實驗值之趨勢相近，最大誤差約為9%。
實驗值在填充壓力5 bar，轉速500 rpm下有最佳性能係數，由1.63提升至1.70;轉速1000 rpm下，性能係數由1.13提升至1.34。理論值在填充壓力6 bar，轉速500rpm下有最佳性能係數3.12。

This study establishes a theoretical model to predict the performance of a Stirling heat pump and uses the prototype to verify the accuracy of the theoretical model. The theoretical model divides the heat pump into six sections, such as expansion chamber, cooler, regenerator, heater, compression chamber and water jacket, and it discusses the influences of stirling heat pump by varying of the operating parameters such as charged pressure, rotation speed and environmental factors. The temperature, pressure and performance measurement system of Stirling heat pump is established.
Comparing the results, it is found that the theoretical model and experimental results are close at charged pressure is 1 bar. The maximum error between the theoretical model and experimental results is about 9%.

參考文獻
[1] N. L. S. Carnot , Reflections on the motive power of fire , John Wiley & Sons, Inc , London , pp. 85-86,1897.
[2] M.Zogg , History of heat pumps-swiss contributions and international milestones , Swiss federal office of energy , pp.9, 2008.
[3] 張軍，地熱能、餘熱能與熱泵技術，化學工業出版社，北京，2014.
[4] 天舒能源，熱泵熱水器工業發展歷史，2012.
[5] D.Chen, S.Chuan and S.Shu , "Similarity design and experimental investigation of a beta-type Stirling engine with a rhombic drive mechanism", International Jounal of Energy Research , Vol. 39 , pp.191-201 , 2015
[6] F. Aksoy , H. Solmaz , C. Cinar and H. Karabulut , "1.2kW beta type Stirling engine with rhombic drive mechanism" , International Jounal of Energy Research , Vol. 41 , pp.1310-1321 , 2017.
[7] 黃志堅、袁周，熱泵工業節能應用，化學工業出版社，北京，2014.
[8] C. H. Cheng and H. S. Yang ,"Optimization of geometrical parameters for Stirling engines based on theoretical analysis" , Applied Energy , Vol. 92 , pp. 395-405 , 2012
[9] C. Borgnakke and R. E. Sonntag , Fundamentals of thermodynamics 7th edition , John Wiley & Sons ,Inc , Singapore , pp. 12-26 , 2010.
[10] H.S. Yang , C.H Cheng and H.X Chen , "Development of a beta type stirling heat pump with rhombic drive mechanism by a modified non-ideal adiabatic model" , International Stirling Engine Conference ,Tainan , Taiwan , September 19-21 2018.
[11] A. J. Organ , The regenerator and the Stirling engine , John Wiley & Sons, Inc , United Kingdom , 1997.
[12] R. S. Wakeland and R. M. Keolian , "Measurements of resistance of individual square-mesh screens to oscillating flow at low and intermediate Reynolds numbers" , Journal of Fluids Engineering , Vol. 125 , pp.851-861 , 2003.
[13] K. Nam and S. Jeong, "Novel flow analysis of regenerator under oscillating flow with pulsating pressure" , Cryogenics, Vol. 45 , pp.368-379 , 2005.
[14] R. A. Ackermann , Regenerative heat exchanger theory , Springer, New York , 1997.
[15] J. T. Fanning , A practical treatise on hydraulic and water-supply engineering , D. Van Nostrand , New York, 1882.
[16] R.K. Shah , A.L. London , In laminar flow forced convection in ducts , Elsevier Inc , 1978.
[17] V. Hessel,S. Hardt and H. Löwe , Chemical micro process engineering , John Wiley & Sons Inc , pp.169-171 , 2006.
[18] S. Kakaç , L.L. Vasiliev and Y. Bayazitoglu , Microscale heat transfer- fundamentals and applications , Springer Science & Business Media , pp.32 , 2005.
[19] 李宗興、陳雅玫、施世濠，空氣源熱泵熱水器性能檢測技術之研究，冷凍空調與能源科技雜誌，台灣，2012.
[20] 謝宗晏，史特靈熱泵之設計與理論分析，國立成功大學航空及太空工程學系碩士學位論文，台南，2017.