Perspectives for low-temperature waste heat recovery

被引:213
|
作者
Xu, Z. Y. [1 ]
Wang, R. Z. [1 ]
Yang, Chun [2 ]
机构
[1] Shanghai Jiao Tong Univ, Inst Refrigerat & Cryogen, Shanghai 200240, Peoples R China
[2] Nanyang Technol Univ, Sch Mech & Aerosp Engn, Singapore 639798, Singapore
基金
国家重点研发计划; 新加坡国家研究基金会;
关键词
Waste heat; Energy conversion; Optimization; Thermal storage; Heat pump; ORGANIC RANKINE CYCLES; THERMAL STORAGE; LONG-DISTANCE; POWER-PLANT; INTEGRATION; TRANSPORTATION; SOLAR; OPTIMIZATION; SYSTEMS; ENERGY;
D O I
10.1016/j.energy.2019.04.001
中图分类号
O414.1 [热力学];
学科分类号
摘要
In this forward-looking perspective, the current technologies for low-temperature waste heat recovery are first analyzed from two aspects: (i) the local waste heat recovery technology and (ii) global optimization of energy flow network. Based on the analysis, barriers for the further promotion of waste heat recovery are outlined, and they include the lack of global optimization methodology, distributed waste heat recovery system with high costs, and mismatches between waste heat source and demand. To address these issues, perspectives on three aspects are provided. First, advanced graphical analysis and optimization methodology integrating the heat exchange and energy conversion can promote the user-friendly optimization. Second, concentrated waste heat recovery and supply can save the investment, installation area and operation costs, thereby making the waste heat recovery cost-effective. Third, thermal storage, thermal transportation and high temperature heat pump can better couple the waste heat source and user demand from time-scale, spatial scale and energy grade, respectively. Visions for the future are combined with technical details to provide comprehensive perspectives for the next-step waste heat recovery. (C) 2019 Elsevier Ltd. All rights reserved.
引用
收藏
页码:1037 / 1043
页数:7
相关论文
共 50 条
  • [21] Selection of Working Fluids for Low-temperature Waste Heat Recovery Using Organic Rankine Cycle
    Li, Hui
    Ma, Xinling
    Wei, Xinli
    Yin, Shugui
    RENEWABLE AND SUSTAINABLE ENERGY II, PTS 1-4, 2012, 512-515 : 1217 - 1222
  • [22] The Misselhorn Cycle: Batch-Evaporation Process for Efficient Low-Temperature Waste Heat Recovery
    Gleinser, Moritz
    Wieland, Christoph
    ENERGIES, 2016, 9 (05):
  • [23] Thermal performance analysis of ground source heat pump system for low-temperature waste heat recovery storage
    Wang, Songqing
    Qu, Rongyan
    Zhang, Xuedan
    Li, Yitong
    Chen, Jingya
    CASE STUDIES IN THERMAL ENGINEERING, 2022, 35
  • [24] Improved water to water heat pump design for low-temperature waste heat recovery based on subcooling control
    Hervas-Blasco, Estefania
    Navarro-Peris, Emilio
    Barcelo-Ruescas, Francisco
    Miguel Corberan, Jose
    INTERNATIONAL JOURNAL OF REFRIGERATION-REVUE INTERNATIONALE DU FROID, 2019, 106 : 374 - 383
  • [25] Advanced Exergy and Exergoeconomic Analysis of Cascade High-Temperature Heat Pump System for Recovery of Low-Temperature Waste Heat
    Hu, Xiaowei
    Shi, Chenyang
    Liu, Yong
    Fu, Xingyu
    Ma, Tianyao
    Jin, Mingsen
    ENERGIES, 2024, 17 (05)
  • [26] Thermodynamic investigation of low-temperature industrial waste-heat recovery in combined heat and power generation systems
    Etemoglu, A. B.
    INTERNATIONAL COMMUNICATIONS IN HEAT AND MASS TRANSFER, 2013, 42 : 82 - 88
  • [27] Comparison of low temperature waste heat recovery methods
    Varga, Zoltan
    Palotai, Balazs
    ENERGY, 2017, 137 : 1286 - 1292
  • [28] Improving Thermoacoustic Low-Temperature Heat Recovery Systems
    Yang, Zongming
    Korobko, Volodymyr
    Radchenko, Mykola
    Radchenko, Roman
    SUSTAINABILITY, 2022, 14 (19)
  • [29] OPTIONS MULTIPLY FOR LOW-TEMPERATURE HEAT RECOVERY.
    Makansi, Jason
    Power, 1985, 129 (08) : 73 - 75
  • [30] LOW-TEMPERATURE HEAT-RECOVERY IN AN OIL REFINERY
    MILANI, R
    APPLIED ENERGY, 1990, 36 (1-2) : 43 - 45