[1]. Marques J P, Matos H A, Oliveira N M C, Nunes C P (2017) State-of-the-art review of targeting and design methodologies for hydrogen network synthesis, International Journal of Hydrogen Energy, 42: 376-404. ##
[2]. Deng C, Zhou Y, Jiang W, Feng X (2017) Optimal design of inter-plant hydrogen network with purification reuse/recycle, International Journal of Hydrogen Energy, 42: 19984-20002. ##
[3]. Khajehpour M, Farhadi F, Pishvaie MR (2008) Nonlinear optimization of hydrogen management of refinery, Master's Thesis to Sharif University of Technology, Tehran, Iran. ##
[4]. Thernese A, Szalmas G, Dinka P, Simon T (2008) CO2 capture- New challenge in refinery industry, MOL Scientific Magazine.
[5]. Zhang Q, Liu G, Feng X, Chu KH, Deng C (2014) Hydrogen networks synthesis considering separation performance of purifiers, Int. J. Hydrogen Energy, 39: 8357-8373. ##
[6]. Alhajri I (2008) Integration of hydrogen and CO2 management within refinery planning, Ph.D thesis to University of Waterloo.
[7]. Towler G P, Mann R, Serriere A J L, Gabaude C M D (1996) Refinery hydrogen management: cost analysis of chemically integrated facilities, Industrial and Engineering Chemistry Research, 35: 2378-2388. ##
[8]. Alves J J (1999) Analysis and design of refinery hydrogen distribution systems, Manchester, UK: University of Manchester Institute of Science and Technology, Ph.D. Thesis. ##
[9]. Ding Y, Feng X, Chu K H (2011) Optimization of hydrogen distribution systems with pressure constraints, Journal of Cleaner Production, 19: 204-211. ##
[10]. Foo D C Y, Manan Z A (2006) Setting the minimum utility gas flowrate targets using cascade analysis technique, Industrial and Engineering Chemistry Research, 45: 5986-5995. ##
[11]. Zhao Z, Liu G, Feng X (2007) The integration of the hydrogen distribution system with multiple impurities, Chemical Engineering Research and Design, 5: 1295-1304. ##
[12]. Alves J J, Towler G P (2002) Analysis of refinery hydrogen distribution systems, Industrial and Engineering Chemistry Research, 41: 5759-5769.
[13]. Hallale N, Liu F (2001) Refinery hydrogen management for clean fuels production, Advances in Environmental Research, 6: 81-98. ##
[14]. Liu F, Hallale N, Gani R, Jorgensen SB (2001) Retrofit of refinery hydrogen systems, European Symposium on Computer Aided Process Engineering; Elsevier, 11: 445-50. ##
[15]. Liu F, Zhang N (2004) Strategy of purifier selection and integration in hydrogen networks, Chemical Engineering Research and Design, 82: 1315-1330. ##
[16]. Ahmad M I, Zhang N, Jobson M (2010) Modelling and optimization for design of hydrogen networks for multi-period operation, Journal of Cleaner Production, 18: 889-899. ##
[17]. Kuo CC, Chang CT (2014) Improved model formulations for multiperiod hydrogen network designs, Industrial and Engineering Chemistry Research, 53: 20204-20222. ##
[18]. Chang C T, Kuo C C (2015) Improved design strategies for flexible hydrogen networks, Computer Aided Chemical Engineering, 37: 1007-1012.
[19]. Jiao Y, Su H, Hou W (2012) Improved Optimization Methods for Refinery Hydrogen Network and Their Applications, Control engineering practice, 20: 1075-1093. ##
[20]. Jiao Y, Su H, Hou W, Liao Z (2012) A multiperiod optimization model for hydrogen system scheduling in refinery, Industrial and Engineering Chemistry Research, 51: 6085-6098. ##
[21]. Liao Z, Wang J, Yang Y, Rong G (2010) Integrating purifiers in refinery hydrogen networks: a retrofit case study, Journal of Cleaner Production, 18: 233-241. ##
[22]. Khajehpour M, Farhadi F, Pishvaie MR (2009) Reduced superstructure solution of MINLP problem in refinery hydrogen management, International journal of Hydrogen Energy, 34: 9233-9238. ##
[23]. Yaqi L, Zuwei L, Jingyuan S, Binbo J, Jingdai W, Yongrong Y (2019) A novel two-step method to design inter-plant hydrogen network, International Journal of Hydrogen Energy, 44: 5686-5695. ##
[24]. Minbo Y, Xiao F (2019) Simulation-based optimization and design of refinery hydrogen networks with hydrogen sulfide removal, International Journal of Hydrogen Energy, 44: 23833–23845. ##
[25]. Silva P R, Aragão M E, Trierweiler J O, Trierweiler L F (2020) An overview of different approaches in hydrogen network optimization via mathematical programming, Brazilian Journal of Operations and Production Management, 17: 2020990-2021010. ##
[26]. Xuepeng L, Jian L, Chun D, Jui-Yuan L, Raymond R T (2020) Synthesis of refinery hydrogen network integrated with hydrogen turbines for power recovery, Energy, 201: 117623-117637. ##
[27]. Ying C, Min L, Hao J, Zhihong Y, Bingzhen C (2020) Optimal design and operation of refinery hydrogen systems under multi-scale uncertainties, Computers and Chemical Engineering, 138: 106822-106843. ##
[28]. Yang M, Feng X, Zhao L (2021) Coupling pinch analysis and rigorous process simulation for hydrogen networks with light hydrocarbon recovery, Chinese Journal of Chemical Engineering. ##
[29]. Zhang Q, Fang Q, Feng Q (2021) Simulation and modeling-based refinery hydrogen network integration with process risk analysis, Industrial and Engineering Chemistry Research, 60: 5516−5529. ##
[30]. Chang C, Lin Q, Liao Z, Wang J, Yang Y (2022) Globally optimal design of refinery hydrogen networks with pressure discretization, Chemical Engineering Science, 247: 117021-117035. ##
[31]. Mertens J N, Minks K, Spoor R M (2006) Refinery CO2 challenges, Petroleum Technology Quarterly, 1: 113-121. ##
[32]. Stockle M, Carter D, Jounes L (2008) Optimizing refinery CO2 emissions, Petroleum Technology Quarterly, 1: 123-130. ##
[33]. Ratan S, Uffelen R (2008) Curtailing refinery CO2 through H2 Plant, Petroleum Technology Quarterly 7: 19-23. ##
[34]. Clarke S C (2001) CO2 management – a refiner’s perspective, Petroleum Technology Quarterly, 23: 77-85. ##
[35]. Ritter K, Nordrum S, Shires T, Levon M (2005) Ensuring consistent greenhouse gas emissions estimates, Chemical Engineering Processes, 34: 30-37. ##
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