Total industrial park site heat integration with waste heat utilization

被引：0
|
作者：
Ji F. [1 ]
Sun X. [1 ]
Liu L. [1 ]
Du J. [1 ]
机构：
[1] Institute of Chemical Process Systems Engineering, School of Chemical Engineering, Dalian University of Technology, Dalian
来源：
Qinghua Daxue Xuebao/Journal of Tsinghua University | 2022年 / 62卷 / 02期
关键词：
Heat exchanger network (HEN); Industrial park; Optimization; Total site heat integration; Waste heat refrigeration;
D O I：
10.16511/j.cnki.qhdxxb.2021.25.009
中图分类号：
学科分类号：
摘要：
Integrated utility systems, heat exchanger networks (HEN), and refrigeration systems can significantly improve waste heat utilization in industrial parks. This paper presents a programmed approach for total site heat integration. A site heat integration model was developed that includes interactions between the inter-plant HEN, steam system, cooling water system, and absorption cooling (ARC) system and was formulated as a mixed-integer nonlinear programming (MINLP) model. In this model, steam generated from the hot process stream and the utility steam are used as a heat source to heat the cold stream and drive the ARC system. The cooling water and chilled water systems are then used as cooling sources to meet the cooling requirements of the ARC system and the hot stream. Analyses of three plants shows the effect of waste heat utilization on the total energy distribution at the site. The results show that this method significantly reduces the energy consumption and investment by making the overall system configuration more efficient. © 2022, Tsinghua University Press. All right reserved.
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页码：312 / 320
页数：8
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共 21 条
  • [1] DHOLE V R, LINNHOFF B., Total site targets for fuel, co-generation, emissions, and cooling, Computers & Chemical Engineering, 17, pp. S101-S109, (1993)
  • [2] RODERA H, BAGAJEWICZ M J., Multipurpose heat-exchanger networks for heat integration across plants, Industrial & Engineering Chemistry Research, 40, 23, pp. 5585-5603, (2001)
  • [3] WANG Y F, CHANG C L, FENG X., A systematic framework for multi-plants heat integration combining direct and indirect heat integration methods, Energy, 90, pp. 56-67, (2015)
  • [4] LIU L L, WU C H, ZHUANG Y, Et al., Interplant heat integration method involving multiple intermediate fluid circles and agents: Single-period and multiperiod designs, Industrial & Engineering Chemistry Research, 59, 10, pp. 4698-4711, (2020)
  • [5] MA J Z, CHANG C L, WANG Y F, Et al., Multi-objective optimization of multi-period interplant heat integration using steam system, Energy, 159, pp. 950-960, (2018)
  • [6] LIU L L, SHENG Y, ZHUANG Y, Et al., Multiobjective optimization of interplant heat exchanger networks considering utility steam supply and various locations of interplant steam generation/utilization, Industrial & Engineering Chemistry Research, 59, 32, pp. 14433-14446, (2020)
  • [7] YANG S., Study on low-grade waste heat utilization in cocal-to-SNG process, (2017)
  • [8] TORA E A, EL-HALWAGI M M., Integration of solar energy into absorption refrigerators and industrial processes, Chemical Engineering & Technology, 33, 9, pp. 1495-1505, (2010)
  • [9] LIRA-BARRAGAN L F, PONCE-ORTEGA J M, SERNA-GONZALEZ M, Et al., Synthesis of integrated absorption refrigeration systems involving economic and envi-ronmental objectives and quantifying social benefits, Applied Thermal Engineering, 52, 2, pp. 402-419, (2013)
  • [10] PONCE-ORTEGA J M, TORA E A, GONZALEZ-CAMPOS J B, Et al., Integration of renewable energy with industrial absorption refrigeration systems: Systematic design and operation with technical, economic, and environmental objectives, Industrial & Engineering Chemistry Research, 50, 16, pp. 9667-9684, (2011)
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