Ground Source Heat Pump’s Life-cycle Energy Conservation and Technical Economy Analysis Models with Their Application

doi:10.12005/orms.2018.0048

Operations Research and Management Science ›› 2018, Vol. 27 ›› Issue (2): 159-167.DOI: 10.12005/orms.2018.0048

• Application Research • Previous Articles Next Articles

Ground Source Heat Pump’s Life-cycle Energy Conservation and Technical Economy Analysis Models with Their Application

XU Hui¹, LIN Li-qiong¹, TAN Zhong-fu¹

Power Economic Research Institute, Economics and Management School of North China Electricity University, Beijing 102206, China

Received:2015-10-10 Online:2018-02-25

地源热泵全寿命周期节能减排技术经济模型及应用

徐辉, 林丽琼, 谭忠富

华北电力大学经济与管理学院,北京 102206

作者简介:徐辉(1968-),男,山东省沂南县人,博士研究生,能源经济方向;谭忠富(1964-),男,吉林长岭县,教授,博士生导师,能源经济环境研究所所长,能源发展研究基地首席专家,能源经济方向;林丽琼(1990-),女,福建省三明市泰宁县,硕士,能源经济方向。
基金资助:
自然科学基金资助项目(71071053)#

Abstract

Abstract: Ground source heat pump(GSHP)is a renewable heating technology driven by clean energy. This paper aims at analyzing the influence GSHP has on energy conservation, emission reduction and the technical economy efficiency, emphasizing the applicability of the GSHP system, and thus encouraging GSHP to be a substitution for the traditional boiler heating in winter. First, based on the investment and application of GSHP in Beijing’s residences, this paper presents an energy conservation and technical economy efficiency analysis model with life cycle theory for GSHP to compare the efficiency of GSHP system with traditional boiler heating. The calculating results show the difference between two heating technologies in energy conservation and emission reduction and the technical economy efficiency of the users is also considered synthetically. Then, the sensitivity analysis methods are introduced to reflect the sensitivity factors and the impact degree of the environment and technical economy efficiency on using GSHP system in residential buildings. Finally, the paper proposes advice on popularizing the GSHP technology and predicts the promotion effects. Besides, under the “12-th five-year plan” policy, the energy-conservation and environment-protection contribution GSHP makes is also analyzed.

Key words: ground source heat pump, energy consumption and emission reduction, technical economy, sensitivity analysis

摘要： 地源热泵是一种可再生清洁能源供暖技术,本文旨在综合分析其对于节能环保以及居民技术经济方面产生的影响,强调热泵技术的适用性,鼓励将该设备作为取代冬季居民锅炉取暖的技术之一。以北京市居民住宅投资使用地源热泵为背景,与锅炉取暖进行对比,构建地源热泵全寿命周期内的节能减排、技术经济效益模型,通过实际算例进行计算,分析二者之间的节能减排差异效果,综合考虑用户的技术经济效果。采用敏感性分析法,确定影响居民住宅地源热泵全寿命周期环境和技术经济效果的敏感性因素及其影响程度。最后提出推广热泵的合理化措施,并就北京地区地源热泵的推广效果进行了预测,分析其对北京“十二五”节能环保规划的贡献程度。

关键词: 地源热泵, 节能减排, 技术经济, 敏感性分析

CLC Number:

F224.35

XU Hui, LIN Li-qiong, TAN Zhong-fu. Ground Source Heat Pump’s Life-cycle Energy Conservation and Technical Economy Analysis Models with Their Application[J]. Operations Research and Management Science, 2018, 27(2): 159-167.

徐辉, 林丽琼, 谭忠富. 地源热泵全寿命周期节能减排技术经济模型及应用[J]. 运筹与管理, 2018, 27(2): 159-167.

References

[1] Jenkins A F, Chapman R A, Reilly H E. Tax barriers to four renewable electric generation technologies[J]. Solar Engineering, 1996: 287-298.
[2] Kostantinos D P, Argyris G K, John P. The role of RES in the new member states of EU[J]. Energy Engineering, 2004, (2): 16-19.
[3] Reiche D, Bechberger M. Policy differences in the promotion of renewable energies in the EU member states[J]. Energy policy, 2004, 32(7): 843-849.
[4] Rottmayer S.P, Beckman W A, Mitchell J W. Simulation of a single vertical u-tube ground heat exchanger in an infinite medium[J]. ASHRAE Tans, 1996,103(2): 651-659.
[5] Tarnawski V R, Leong W H. Computer analysis, design and simulation of horizontal ground heat exchangers[J]. International Journal of Energy Research, 1993, 17(6): 467-477.
[6] Piechowski M. Heat and mass transfer model of a ground heat exchanger: validation and sensitivity analysis[J]. International journal of energy research, 1998, 22(11): 965-979.
[7] Yavuzturk C, Spitler J D, Rees S J. A transient two-dimensional finite volume model for the simulation of vertical U-tube ground heat exchangers[J]. ASHRAE transactions, 1999, 105(2): 465-474.
[8] Yavuzturk C, Spitler J D. Field validation of a short time step response factor model for vertical ground-loop heat exchangers[J]. ASHRAE transactions, 2001,107(1): 617-625.
[9] 王宇航,陈友明,伍佳鸿,等.地源热泵的研究与应用[J].建筑热能通风空调,2004,23(4):30-35.
[10] 李新国,张启.地热热泵调峰供暖系统的热力及经济分析[J].太阳能学报,1997,18(2):146-151.
[11] 罗坚.地源热泵中央空调运行优化控制系统设计[D].湖南:湖南大学,2010.
[12] 郁文红.建筑节能的理论分析与应用研究[D].天津:天津大学,2004.
[13] 刘叔伟.大型商场类建筑空调节能分析[D].天津:天津大学,20008.
[14] 梁海嵘.夏热冬暖区商场空调节能分析[D].重庆:重庆大学,2007.
[15] 刘源全,蒋新波,蔡孝文,等.空调节能泵节能分析[J].水泵技术,2009,(5):43-45.
[16] 赵世明,高峰.热水循环泵节能探讨[J].给水排水,2009,35(3):78-80.
[17] 李兆坚,江亿.住宅空调方案寿命周期能耗和资源消耗研究[J].暖通空调, 2008,38(10):62-69.
[18] 徐红梅.住宅空调的技术与经济分析[D].西安:西安建筑科技大学,2005.

Ground Source Heat Pump’s Life-cycle Energy Conservation and Technical Economy Analysis Models with Their Application

地源热泵全寿命周期节能减排技术经济模型及应用

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