Power-to-methanol process: a review of electrolysis, methanol catalysts, kinetics, reactor designs and modelling, process integration, optimisation, and techno-economics
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Andrea Lanzini | Raymond C. Everson | Nicholas M. Musyoka | Wim Brilman | Siphesihle Mbatha | Henrietta W. Langmi | A. Lanzini | R. Everson | W. Brilman | N. Musyoka | H. Langmi | Siphesihle Mbatha
[1] G. Wozny,et al. Multi-Scale Analysis of Integrated C1 (CH4 and CO2) Utilization Catalytic Processes: Impacts of Catalysts Characteristics up to Industrial-Scale Process Flowsheeting, Part I: Experimental Analysis of Catalytic Low-Pressure CO2 to Methanol Conversion , 2020, Catalysts.
[2] S. Hocine,et al. Improved Cu- and Zn-based catalysts for CO2 hydrogenation to methanol , 2019, Comptes Rendus Chimie.
[3] P. Kazempoor,et al. Novel electrical energy storage system based on reversible solid oxide cells: System design and operating conditions , 2015 .
[4] Wenju Wang,et al. A brief review for chemical looping combustion as a promising CO2 capture technology: Fundamentals and progress. , 2020, The Science of the total environment.
[5] Z. A. Putra,et al. Co-electrolysis for power-to-methanol applications , 2018, Renewable and Sustainable Energy Reviews.
[6] M. Simmons,et al. Understanding the generation of methanol synthesis and water gas shift activity over copper-based catalysts – A spatially resolved experimental kinetic study using steady and non-steady state operation under CO/CO2/H2 feeds , 2016 .
[7] M. Ni,et al. Three-dimensional modeling of flow field optimization for co-electrolysis solid oxide electrolysis cell , 2020 .
[8] Melanie A. McNeil,et al. Methanol synthesis from hydrogen, carbon monoxide and carbon dioxide over a CuO/ZnO/Al2O3 catalyst: II. Development of a phenomenological rate expression , 1989 .
[9] A. Bakhtyari,et al. A CFD modeling to investigate the impact of flow mal-distribution on the performance of industrial methanol synthesis reactor , 2018 .
[10] A. W. Vreman,et al. Ohmic resistance in zero gap alkaline electrolysis with a Zirfon diaphragm , 2021, Electrochimica Acta.
[11] G. Bender,et al. A comprehensive modeling method for proton exchange membrane electrolyzer development , 2021 .
[12] Mahmoud M. El-Halwagi,et al. Structural and Operating Optimization of the Methanol Process Using a Metaheuristic Technique , 2020 .
[13] Zhengkai Tu,et al. Modelling of solid oxide electrolyser cell using extreme learning machine , 2017 .
[14] Jingguang G. Chen,et al. Catalytic reduction of CO2 by H2 for synthesis of CO, methanol and hydrocarbons: challenges and opportunities , 2016 .
[15] S. Kersten,et al. Wind power to methanol: Renewable methanol production using electricity, electrolysis of water and CO2 air capture , 2020 .
[16] J. Tóth,et al. Innovations Connected to Methanol in the Service of Blue Economy , 2018 .
[17] Dong Wu,et al. A high activity Cu/ZnO/Al2O3 catalyst for methanol synthesis: Preparation and catalytic properties , 1997 .
[18] Johannes J. Meyer,et al. Modeling of a Methanol Synthesis Reactor for Storage of Renewable Energy and Conversion of CO2 – Comparison of Two Kinetic Models , 2016 .
[19] Đ. juričić,et al. Modelling of anode delamination in solid oxide electrolysis cell and analysis of its effects on electrochemical performance , 2018 .
[20] Pio Forzatti,et al. Synthesis of alcohols from carbon oxides and hydrogen. 1. Kinetics of the low-pressure methanol synthesis , 1985 .
[21] M. Romero,et al. Part load operation of a solid oxide electrolysis system for integration with renewable energy sources , 2015 .
[22] Robert Schlögl,et al. The Mechanism of CO and CO2 Hydrogenation to Methanol over Cu‐Based Catalysts , 2015 .
[23] Oliver Posdziech,et al. Development and Demonstration of a Novel Reversible SOFC System for Utility and Micro Grid Energy Storage , 2017 .
[24] J. Deseure,et al. Modeling of electrochemically generated bubbly flow under buoyancy-driven and forced convection , 2015 .
[25] K. Lee,et al. One-dimensional dynamic modeling of a high-pressure water electrolysis system for hydrogen production , 2013 .
[26] Tarannom Parhizkar,et al. Degradation based operational optimization model to improve the productivity of energy systems, case study: Solid oxide fuel cell stacks , 2018 .
[27] U. Hampel,et al. Simulation of the transient behavior of tubular solid oxide electrolyzer cells under fast load variations , 2019, International Journal of Hydrogen Energy.
[28] J. O’Brien,et al. Improved durability of SOEC stacks for high temperature electrolysis , 2013 .
[29] A. Dalai,et al. Review of post-combustion carbon dioxide capture technologies using activated carbon. , 2019, Journal of environmental sciences.
[30] Rodney J. Dry,et al. Possibilities for the development of large-capacity methanol synthesis reactors for synfuel production , 1988 .
[31] Jyeshtharaj B. Joshi,et al. Catalytic carbon dioxide hydrogenation to methanol: A review of recent studies , 2014 .
[32] N. Aluru,et al. A multiscale model for electrochemical reactions in LSCF based solid oxide cells , 2018 .
[33] Aristide F. Massardo,et al. Feasibility study of methanol production from different renewable sources and thermo-economic analysis , 2016 .
[34] Hamid Arastoopour,et al. CFD Simulation of CO2 Sorption in a Circulating Fluidized Bed Using Deactivation Kinetic Model , 2011 .
[35] Pablo Sanchis,et al. Integration of commercial alkaline water electrolysers with renewable energies: Limitations and improvements , 2016 .
[36] Mohan Kolhe,et al. Equivalent electrical model for a proton exchange membrane (PEM) electrolyser , 2011 .
[37] R. Hreiz,et al. Hydrodynamics of gas bubbles in the gap of lantern blade electrodes without forced flow of electrolyte: Experiments and CFD modelling , 2014 .
[38] Hosein Taghdisian,et al. Multi-objective optimization approach for green design of methanol plant based on CO2-efficeincy indicator , 2015 .
[39] Kai Sundmacher,et al. The FluxMax approach: Simultaneous flux optimization and heat integration by discretization of thermodynamic state space illustrated on methanol synthesis process , 2020 .
[40] M. Fattahi,et al. Modeling of the Methanol Synthesis Catalyst Deactivation in a Spherical Bed Reactor: An Environmental Challenge , 2014 .
[41] Dunyou Wang,et al. Methanol synthesis from CO2/H2 on Cu (1 0 0): Two-tier ab initio molecular dynamics study , 2020 .
[42] P. Aravind,et al. Methanol based Solid Oxide Reversible energy storage system – Does it make sense thermodynamically? , 2020, Applied Energy.
[43] Jesus Rodriguez,et al. CFD Modeling and Experimental Validation of an Alkaline Water Electrolysis Cell for Hydrogen Production , 2020, Processes.
[44] S. Kær,et al. A comparative study on three reactor types for methanol synthesis from syngas and CO2 , 2020 .
[45] M. Garland,et al. The role of CO2 in methanol synthesis on CuZn oxide: An isotope labeling study , 1985 .
[46] Xinlin Hong,et al. Pd@zeolitic imidazolate framework-8 derived PdZn alloy catalysts for efficient hydrogenation of CO2 to methanol , 2018, Applied Catalysis B: Environmental.
[47] V. Spallina,et al. Techno-economic assessment of an integrated high pressure chemical-looping process with packed-bed reactors in large scale hydrogen and methanol production , 2019, International Journal of Greenhouse Gas Control.
[48] Chunshan Song,et al. Carbon Capture From Flue Gas and the Atmosphere: A Perspective , 2020, Frontiers in Energy Research.
[49] Emmanuel Kakaras,et al. Investigation of technical and economic aspects for methanol production through CO2 hydrogenation , 2016 .
[50] P. Kenkel,et al. Power-to-Methanol at Refineries as a Precursor to Green Jet Fuel Production: a Simulation and Assessment Study , 2020 .
[51] Zheng‐Hong Luo,et al. Highly dispersed Pt-based catalysts for selective CO2 hydrogenation to methanol at atmospheric pressure , 2019, Chemical Engineering Science.
[52] Zhisheng Shi,et al. CO2 Hydrogenation to Methanol over a Highly Active Cu–Ni/CeO2–Nanotube Catalyst , 2018, Industrial & Engineering Chemistry Research.
[53] Darko Goricanec,et al. Comparison between two methods of methanol production from carbon dioxide , 2014 .
[54] H. Dipojono,et al. Theoretical study of CO2 hydrogenation to methanol on isolated small Pd clusters , 2019, Journal of Energy Chemistry.
[55] R. Agarwal. Methanol Synthesis from CO2 Hydrogenation Using Metal–Organic Frameworks , 2018, Energy, Environment, and Sustainability.
[56] Nigel P. Brandon,et al. Modelling the dynamic response of a solid oxide steam electrolyser to transient inputs during renewable hydrogen production , 2010 .
[57] Guo-Dong Lin,et al. Carbon nanotube-supported Pd-ZnO catalyst for hydrogenation of CO2 to methanol , 2009 .
[58] Gunther Kolb,et al. Review: Microstructured reactors for distributed and renewable production of fuels and electrical energy , 2013 .
[59] Onur Onel,et al. Multi-scale approaches for gas-to-liquids process intensification: CFD modeling, process synthesis, and global optimization , 2017, Comput. Chem. Eng..
[60] A. Naeem,et al. CO2 Conversion to Methanol over Novel Carbon Nanofiber-Based Cu/ZrO2 Catalysts—A Kinetics Study , 2020, Catalysts.
[61] D. S. Falcão,et al. A review on PEM electrolyzer modelling: Guidelines for beginners , 2020, Journal of Cleaner Production.
[62] Manos Mavrikakis,et al. Mechanism of Methanol Synthesis on Cu through CO2 and CO Hydrogenation , 2011 .
[63] C. Bergins,et al. Commercialization of Low Carbon Methanol , 2016 .
[64] J. Klemeš,et al. Mechanisms and kinetics of CO2 hydrogenation to value-added products: A detailed review on current status and future trends , 2017 .
[65] P. Pfeifer,et al. Characteristics of an integrated micro packed bed reactor-heat exchanger for methanol synthesis from syngas , 2011 .
[66] Mogens Bjerg Mogensen,et al. High temperature electrolysis in alkaline cells, solid proton conducting cells, and solid oxide cells. , 2014, Chemical reviews.
[67] Hongguang Jin,et al. A polygeneration system for the methanol production and the power generation with the solar–biomass thermal gasification☆ , 2015 .
[68] Xiaochen Shen,et al. Synergy between active sites of Cu-In-Zr-O catalyst in CO2 hydrogenation to methanol , 2019, Journal of Catalysis.
[69] H. Freund,et al. A multimodular pseudoheterogeneous model framework for optimal design of catalytic reactors exemplified by methanol synthesis , 2019, Chemical Engineering Science.
[70] M. Farsi. Mathematical Modeling and Optimization of a Radial Flow Tubular Reactor to Produce Methanol from Syngas , 2018, Petroleum Chemistry.
[71] J. Chen,et al. A review of high temperature co-electrolysis of H2O and CO2 to produce sustainable fuels using solid oxide electrolysis cells (SOECs): advanced materials and technology. , 2017, Chemical Society reviews.
[72] Limei Yan,et al. Modelling the performance of an SOEC by optimization of neural network with MPSO algorithm , 2019, International Journal of Hydrogen Energy.
[73] Yongping Yang,et al. Reversible solid-oxide cell stack based power-to-x-to-power systems: Comparison of thermodynamic performance , 2020, Applied Energy.
[74] Ming Liu,et al. Dynamic modeling and parameter analysis study on reversible solid oxide cells during mode switching transient processes , 2020, Applied Energy.
[75] Vinod M. Janardhanan,et al. A model-based understanding of solid-oxide electrolysis cells (SOECs) for syngas production by H2O/CO2 co-electrolysis , 2015 .
[76] Pablo Sanchis,et al. Hydrogen Production From Water Electrolysis: Current Status and Future Trends , 2012, Proceedings of the IEEE.
[77] R. Küngas. Review—Electrochemical CO2 Reduction for CO Production: Comparison of Low- and High-Temperature Electrolysis Technologies , 2020, Journal of The Electrochemical Society.
[78] Abdul Rahman Mohamed,et al. Recent development in catalytic technologies for methanol synthesis from renewable sources: A critical review , 2015 .
[79] P. Pfeifer,et al. Preparation and Performance of a Catalyst-Coated Stacked Foil Microreactor for the Methanol Synthesis , 2010 .
[80] Jianping Li,et al. A General Framework for Process Synthesis, Integration and Intensification , 2019 .
[81] M. Mavrikakis,et al. Synthesis Gas Conversion over Rh-Mn-WxC/SiO2 Catalysts Prepared by Atomic Layer Deposition , 2018, ACS Catalysis.
[82] John-Paul Jones,et al. Recycling of carbon dioxide to methanol and derived products - closing the loop. , 2014, Chemical Society reviews.
[83] Lucia Russo,et al. Multiplicities of temperature wave trains in periodically forced networks of catalytic reactors for reversible exothermic reactions , 2011 .
[84] E. Kakaras,et al. The CO2 economy: Review of CO2 capture and reuse technologies , 2018 .
[86] Young Duk Lee,et al. A novel electrical energy storage system based on a reversible solid oxide fuel cell coupled with metal hydrides and waste steam , 2020 .
[87] Zongping Shao,et al. Non-precious-metal catalysts for alkaline water electrolysis: operando characterizations, theoretical calculations, and recent advances. , 2020, Chemical Society reviews.
[88] Yashar S. Hajimolana,et al. Dynamic modelling of reversible solid oxide cells for grid stabilization applications , 2021, Energy Conversion and Management.
[89] Grégoire Léonard,et al. Design and Evaluation of a High-Density Energy Storage Route with CO2 Re-Use, Water Electrolysis and Methanol Synthesis , 2016 .
[90] K. Ahn,et al. HIGH-EFFICIENT reversible solid oxide fuel cell coupled with waste steam for distributed electrical energy storage system , 2019 .
[91] M. Rahimpour,et al. Modeling and assessment of novel configurations to enhance methanol production in industrial mega-methanol synthesis plant , 2019, Journal of the Taiwan Institute of Chemical Engineers.
[92] Z. Abdin,et al. Modelling and simulation of an alkaline electrolyser cell , 2017 .
[93] R. Gudi,et al. An improved water electrolysis and oxy-fuel combustion coupled tri-reforming process for methanol production and CO2 valorization , 2021 .
[94] K. Shoji,et al. Optimum catalytic reactor design for methanol synthesis with TEC MRF-Z® reactor , 1998 .
[95] Burin Yodwong,et al. Proton Exchange Membrane Electrolyzer Emulator for Power Electronics Testing Applications , 2021 .
[96] N. Zabidi,et al. Methanol production via CO2 hydrogenation reaction: Effect of catalyst support , 2017 .
[97] Milinkumar T. Shah,et al. Intensified isothermal reactor for methanol synthesis , 2019, Chemical Engineering and Processing - Process Intensification.
[98] Hazlie Mokhlis,et al. Optimization strategies for Solid Oxide Fuel Cell (SOFC) application: A literature survey , 2017 .
[99] Ho-Shing Wu,et al. Methanol formation from carbon dioxide hydrogenation using Cu/ZnO/Al2O3 catalyst , 2019, Journal of the Taiwan Institute of Chemical Engineers.
[100] M. Rosen,et al. Exergy and exergoeconomic analyses of thermally coupled reactors for methanol synthesis , 2017 .
[101] Marco Restelli,et al. Considerations on the steady-state modeling of methanol synthesis fixed-bed reactor , 2011 .
[102] W. Lehnert,et al. Improving the Efficiency of PEM Electrolyzers through Membrane-Specific Pressure Optimization , 2020, Energies.
[103] M. Mercedes Maroto-Valer,et al. An overview of current status of carbon dioxide capture and storage technologies , 2014 .
[104] J. Albert,et al. Shifting the equilibrium of methanol synthesis from CO2 by in situ absorption using ionic liquid media , 2019, Sustainable Energy & Fuels.
[105] P. Schmidt,et al. Power‐to‐Liquids as Renewable Fuel Option for Aviation: A Review , 2018 .
[106] Q. Ge,et al. Hydrogenation of CO2 to methanol over In2O3 catalyst , 2015 .
[107] Richard G. Herman,et al. Catalytic synthesis of methanol from COH2: IV. The effects of carbon dioxide , 1982 .
[108] Ping Liu,et al. Active sites for CO2 hydrogenation to methanol on Cu/ZnO catalysts , 2017, Science.
[109] G. Chinchen,et al. Mechanism of methanol synthesis from CO2/CO/H2 mixtures over copper/zinc oxide/alumina catalysts: use of14C-labelled reactants , 1987 .
[110] J. Chabriat,et al. Dimensionless approach of a polymer electrolyte membrane water electrolysis: Advanced analytical modelling , 2021 .
[111] François Maréchal,et al. A Review of Evaluation, Optimization and Synthesis of Energy Systems: Methodology and Application to Thermal Power Plants , 2018, Energies.
[112] Qiang Hu,et al. Optimization of Hydrogen Yield of a High-Temperature Electrolysis System with Coordinated Temperature and Feed Factors at Various Loading Conditions: A Model-Based Study , 2018, Applied Energy.
[113] Tej S. Choksi,et al. Revealing the Synergy between Oxide and Alloy Phases on the Performance of Bimetallic In–Pd Catalysts for CO2 Hydrogenation to Methanol , 2019, ACS Catalysis.
[114] Jia Yang,et al. Catalysis in microstructured reactors: Short review on small-scale syngas production and further conversion into methanol, DME and Fischer-Tropsch products , 2017 .
[115] J. Nørskov,et al. Power to fuels and chemicals innovation challenge , 2018 .
[116] N. Zabidi,et al. Effect of Catalyst Synthesis Parameters on the Performance of CO2 Hydrogenation to Methanol over SBA-15 Supported Cu/ZnO-Based Catalysts , 2020 .
[117] Thibaut Neveux,et al. Ab-initio process synthesis using evolutionary programming , 2018, Chemical Engineering Science.
[118] L. Øi,et al. Process Integration of Green Hydrogen: Decarbonization of Chemical Industries , 2020, Energies.
[119] Norberto Fueyo,et al. Challenges in the electrochemical modelling of solid oxide fuel and electrolyser cells , 2014 .
[120] H. V. Storch,et al. Techno economic design of a solid oxide electrolysis system with solar thermal steam supply and thermal energy storage for the generation of renewable hydrogen , 2017 .
[121] E. Ahmetovic,et al. Agile Operation of Renewable Methanol Synthesis under Fluctuating Power Inputs , 2020 .
[122] Jerzy Skrzypek,et al. Thermodynamics and kinetics of low pressure methanol synthesis , 1995 .
[123] L. Gong,et al. Investigation of a solar-biomass gasification system with the production of methanol and electricity: Thermodynamic, economic and off-design operation , 2019, Applied Energy.
[124] Zhisheng Shi,et al. A novel Core–Shell structured CuIn@SiO 2 catalyst for CO 2 hydrogenation to methanol , 2019, AIChE Journal.
[125] Edwin Zondervan,et al. A generic superstructure modeling and optimization framework on the example of bi-criteria Power-to-Methanol process design , 2021, Comput. Chem. Eng..
[126] Ravi Arora,et al. Methanol production FPSO plant concept using multiple microchannel unit operations , 2008 .
[127] E. Stamhuis,et al. Kinetics of low-pressure methanol synthesis , 1988 .
[128] S. Upadhyayula,et al. Selective conversion of CO2 to methanol over intermetallic Ga-Ni catalyst: Microkinetic modeling , 2020 .
[129] M. Li,et al. Bimetallic catalysts for green methanol production via CO2 and renewable hydrogen: a mini-review and prospects , 2018 .
[130] T. Ishihara,et al. Hydrogenation of CO2 to methanol over Cu/AlCeO catalyst , 2020 .
[131] Adrie Huesman. Integration of operation and design of solar fuel plants: A carbon dioxide to methanol case study , 2020, Comput. Chem. Eng..
[132] Giulia Bozzano,et al. Energy-process Integration of the Gas-cooled/water-cooled Fixed-bed Reactor Network for Methanol Synthesis , 2013 .
[133] P. Lund,et al. Computational approaches for improving seasonal storage systems based on hydrogen technologies , 1995 .
[134] Ping Liu,et al. Exploring the ternary interactions in Cu–ZnO–ZrO2 catalysts for efficient CO2 hydrogenation to methanol , 2019, Nature Communications.
[135] M. G. Dozein,et al. Fast Frequency Response From Utility-Scale Hydrogen Electrolyzers , 2021, IEEE Transactions on Sustainable Energy.
[136] K. C. Waugh,et al. The chemical state of copper during methanol synthesis , 1986 .
[137] Xue-qing Gong,et al. Shape Effect of Pd-Promoted Ga2O3 Nanocatalysts for Methanol Synthesis by CO2 Hydrogenation , 2014 .
[138] G. Kibria,et al. Comparative techno-economic and life-cycle assessment of power-to-methanol synthesis pathways , 2020, Applied Energy.
[139] J. Leclaire,et al. Integrated CO2 capture and utilization: A priority research direction , 2019, Current Opinion in Green and Sustainable Chemistry.
[140] T. Holm,et al. Hydrogen costs from water electrolysis at high temperature and pressure , 2021, Energy Conversion and Management.
[141] W. Lippmann,et al. Concept, design, and energy analysis of an integrated power-to-methanol process utilizing a tubular proton-conducting solid oxide electrolysis cell , 2019, International Journal of Hydrogen Energy.
[142] P. Pfeifer,et al. Analysis of External and Internal Mass Transfer at Low Reynolds Numbers in a Multiple-Slit Packed Bed Microstructured Reactor for Synthesis of Methanol from Syngas , 2012 .
[143] Detlef Stolten,et al. Alkaline Electrolysis - Introduction and Overview , 2010 .
[144] G. Guillén‐Gosálbez,et al. Plant-to-planet analysis of CO2-based methanol processes , 2019, Energy & Environmental Science.
[145] M. Asif,et al. Catalytic hydrogenation of CO2 from 600 MW supercritical coal power plant to produce methanol: A techno-economic analysis , 2018 .
[146] Haitham Al-Kalbani,et al. Comparative energetic assessment of methanol production from CO2: Chemical versus electrochemical process , 2016 .
[147] Carlotta Panzone,et al. Power-to-Liquid catalytic CO2 valorization into fuels and chemicals: focus on the Fischer-Tropsch route , 2020 .
[148] T. Fujitani. Enhancement of the Catalytic Performance and Active Site Clarification of Cu/ZnO Based Catalysts for Methanol Synthesis by CO2 Hydrogenation , 2020, Journal of the Japan Petroleum Institute.
[149] A. Seidel-Morgenstern,et al. Kinetic modeling of methanol synthesis from renewable resources , 2018 .
[150] Kai Sundmacher,et al. Thermodynamic Network Flow Approach for Chemical Process Synthesis , 2018 .
[151] A. Bejan. Fundamentals of exergy analysis, entropy generation minimization, and the generation of flow architecture , 2002 .
[152] Grazia Leonzio. Mathematical modeling of a methanol reactor by using different kinetic models , 2020 .
[153] Mohammad Reza Rahimpour,et al. A Novel Radial‐Flow, Spherical‐Bed Reactor Concept for Methanol Synthesis in the Presence of Catalyst Deactivation , 2008 .
[154] Xinhua Liang,et al. Highly active and selective Cu-ZnO based catalyst for methanol and dimethyl ether synthesis via CO2 hydrogenation , 2019, Fuel.
[155] Suk-Hwan Kang,et al. Modeling of the Kinetics for Methanol Synthesis using Cu/ZnO/Al2O3/ZrO2 Catalyst: Influence of Carbon Dioxide during Hydrogenation , 2009 .
[156] M. E. Lebbal,et al. Identification and monitoring of a PEM electrolyser based on dynamical modelling , 2009 .
[157] D. Stolten,et al. A comprehensive review on PEM water electrolysis , 2013 .
[159] A. Seidel-Morgenstern,et al. Kinetic Modeling of Methanol Synthesis - Impact of Catalyst Deactivation , 2018 .
[160] Jae Wook Lee,et al. Carbonation Kinetics of Potassium Carbonate by Carbon Dioxide , 2006 .
[161] I. Chorkendorff,et al. Quantifying the promotion of Cu catalysts by ZnO for methanol synthesis , 2016, Science.
[162] Aacm Beenackers,et al. Intra-particle diffusion limitations in low-pressure methanol synthesis , 1990 .
[163] Ibrahim Dincer,et al. Development and analysis of an integrated photovoltaic system for hydrogen and methanol production , 2015 .
[164] S. Michailos,et al. Dimethyl ether synthesis via captured CO2 hydrogenation within the power to liquids concept: A techno-economic assessment , 2019, Energy Conversion and Management.
[165] C. Jallut,et al. A multiscale physical model of a polymer electrolyte membrane water electrolyzer , 2013 .
[166] P. Cloetens,et al. Particle-based model for functional and diffusion layers of solid oxide cells electrodes , 2020, Powder Technology.
[167] F. Speckmann,et al. Influence of rectifiers on the techno-economic performance of alkaline electrolysis in a smart grid environment , 2020 .
[168] E. Reichelt,et al. Techno-economic analysis of a co-electrolysis-based synthesis process for the production of hydrocarbons , 2018 .
[169] P. Haug,et al. Process modelling of an alkaline water electrolyzer , 2017 .
[170] Anna Darmani,et al. What drives the development of renewable energy technologies? Toward a typology for the systemic drivers , 2014 .
[171] Yiming Cao,et al. Membrane technology for CO2 capture: From pilot-scale investigation of two-stage plant to actual system design , 2021 .
[172] A. Kienle,et al. Methanol Kinetics from Optimal Dynamic Experiments , 2020 .
[173] W. Bessler,et al. Microkinetic Modeling of Nickel Oxidation in Solid Oxide Cells: Prediction of Safe Operating Conditions , 2019, Chemie Ingenieur Technik.
[174] Víctor M. Ramírez,et al. Cell voltage static-dynamic modeling of a PEM electrolyzer based on adaptive parameters: Development and experimental validation , 2021 .
[175] J. Kibsgaard,et al. Considerations for the scaling-up of water splitting catalysts , 2019 .
[176] H. Freund,et al. Dynamic Carbon Dioxide Methanation in a Wall-Cooled Fixed Bed Reactor: Comparative Evaluation of Reactor Models , 2019, Industrial & Engineering Chemistry Research.
[177] J. Kilner,et al. Performance and Aging of Microtubular YSZ‐based Solid Oxide Regenerative Fuel Cells , 2011 .
[178] P. Pfeifer,et al. Performance of a multi-slit packed bed microstructured reactor in the synthesis of methanol: Comparison with a laboratory fixed-bed reactor , 2011 .
[179] Tatiana Morosuk,et al. A General Exergy-Based Method for Combining a Cost Analysis With an Environmental Impact Analysis: Part I — Theoretical Development , 2008 .
[180] Takashi Toyao,et al. Low-Temperature Hydrogenation of CO2 to Methanol over Heterogeneous TiO2-Supported Re Catalysts , 2019, ACS Catalysis.
[181] S. Karellas,et al. Implementation of the Power to Methanol concept by using CO2 from lignite power plants: Techno-economic investigation , 2016 .
[182] Qiang Sun,et al. Solid Oxide Electrolyzer Cell Modeling: A Review , 2013 .
[183] Sheila Samsatli,et al. Technologies and infrastructures underpinning future CO2 value chains: A comprehensive review and comparative analysis , 2018 .
[184] G. Hutchings,et al. Solvent Free Synthesis of PdZn/TiO2 Catalysts for the Hydrogenation of CO2 to Methanol , 2018, Topics in Catalysis.
[185] J. Yusta,et al. Multi-state techno-economic model for optimal dispatch of grid connected hydrogen electrolysis systems operating under dynamic conditions , 2020, International Journal of Hydrogen Energy.
[186] S. Saha,et al. Hydrogen production via electrolysis: Mathematical modeling approach , 2021 .
[187] Grazia Leonzio,et al. An outlook towards 2030: Optimization and design of a CCUS supply chain in Germany , 2019, Comput. Chem. Eng..
[188] J. Nørskov,et al. The Challenge of CO Hydrogenation to Methanol: Fundamental Limitations Imposed by Linear Scaling Relations , 2020, Topics in Catalysis.
[189] Ø. Ulleberg,et al. TRNSYS simulation models for solar-hydrogen systems , 1997 .
[190] Chao Fu,et al. Work and Heat Exchange Networks – Opportunities and Challenges , 2018 .
[191] P. Pfeifer,et al. Modelling and simulation of a single slit micro packed bed reactor for methanol synthesis , 2020, Catalysis Today.
[192] Mahmoud M. El-Halwagi,et al. The impact of the development of catalyst and reaction system of the methanol synthesis stage on the overall profitability of the entire plant: A techno-economic study , 2020 .
[193] Nigel P. Brandon,et al. Optimal control strategies for hydrogen production when coupling solid oxide electrolysers with intermittent renewable energies , 2014 .
[194] Behdad Moghtaderi,et al. A comparison of homogeneous and heterogeneous dynamic models for industrial methanol reactors in the presence of catalyst deactivation , 2005 .
[195] M. Rahimpour,et al. Introducing a novel process to enhance the syngas conversion to methanol over Cu/ZnO/Al2O3 catalyst , 2019, Fuel Processing Technology.
[196] F. Speckmann,et al. Influence of rectifiers on the energy demand and gas quality of alkaline electrolysis systems in dynamic operation , 2019, Applied Energy.
[197] Timothy E. Fout,et al. Advances in CO2 capture technology—The U.S. Department of Energy's Carbon Sequestration Program ☆ , 2008 .
[198] P. Sanchis,et al. Static-dynamic modelling of the electrical behaviour of a commercial advanced alkaline water electrolyser , 2012 .
[199] Ligang Wang,et al. Techno-economic evaluation of biomass-to-fuels with solid-oxide electrolyzer , 2020, Applied Energy.
[200] K. Fujimoto,et al. Selective methanol synthesis from CO2/H2 on new SiO2-supported PtW and PtCr bimetallic catalysts , 1995 .
[201] Thomas Wensing,et al. Analysis and Optimization , 2011 .
[202] Chakib Bouallou,et al. Investigation of power-to-methanol processes coupling electrolytic hydrogen production and catalytic CO2 reduction , 2016 .
[203] Stefano Campanari,et al. Modeling an alkaline electrolysis cell through reduced-order and loss-estimate approaches , 2014 .
[204] L. Tonkovich,et al. Enabling offshore production of methanol by use of an isopotential reactor , 2004 .
[205] Ulrike Krewer,et al. Future Challenges in Heterogeneous Catalysis: Understanding Catalysts under Dynamic Reaction Conditions , 2016, ChemCatChem.
[206] Jerzy Skrzypek,et al. Kinetics of methanol synthesis over commercial copper/zinc oxide/alumina catalysts , 1991 .
[207] C. Geipel,et al. Stack Development and Industrial Scale-Up , 2019, ECS Transactions.
[208] S. Watson,et al. Comparison of electrical energy efficiency of atmospheric and high-pressure electrolysers , 2006 .
[209] Dick Bedeaux,et al. Minimizing the Entropy Production of the Methanol Producing Reaction in a Methanol Reactor , 2000 .
[210] Y. Pouilloux,et al. Cu-ZnO catalysts for CO2 hydrogenation to methanol: Morphology change induced by ZnO lixiviation and its impact on the active phase formation , 2018 .
[211] Yuhan Sun,et al. Yttrium oxide modified Cu/ZnO/Al2O3 catalysts via hydrotalcite-like precursors for CO2 hydrogenation to methanol , 2015 .
[212] Ø. Ulleberg. Modeling of advanced alkaline electrolyzers: a system simulation approach , 2003 .
[213] F. Ausfelder,et al. Power‐to‐Fuels: E‐Fuels as an Important Option for a Climate‐Friendly Mobility of the Future , 2020 .
[214] M. J. Bos,et al. Critical assessment of steady-state kinetic models for the synthesis of methanol over an industrial Cu/ZnO/Al2O3 catalyst , 2020, Chemical Engineering Journal.
[215] J. Dieulot,et al. Generic Dynamical Model of PEM Electrolyser under Intermittent Sources , 2020, Energies.
[216] S. Jensen,et al. Modeling degradation in SOEC impedance spectra , 2013 .
[217] S. Kær,et al. Towards uniformly distributed heat, mass and charge: A flow field design study for high pressure and high current density operation of PEM electrolysis cells , 2019, Electrochimica Acta.
[218] Abdelghafour Zaabout,et al. Review of pressurized chemical looping processes for power generation and chemical production with integrated CO2 capture , 2021 .
[219] W. Luyben. Design and Control of a Methanol Reactor/Column Process , 2010 .
[220] Jiong Shen,et al. Solvent-based post-combustion CO2 capture for power plants: A critical review and perspective on dynamic modelling, system identification, process control and flexible operation , 2020, Applied Energy.
[221] I. Dincer,et al. Modeling and performance optimization of a solid oxide electrolysis system for hydrogen production , 2018, Applied Energy.
[222] Grazia Leonzio. State of art and perspectives about the production of methanol, dimethyl ether and syngas by carbon dioxide hydrogenation , 2018, Journal of CO2 Utilization.
[223] M. Bertau,et al. Methanol Synthesis by CO2 Hydrogenation over Cu/ZnO/Al2O3 Catalysts under Fluctuating Conditions , 2018 .
[224] Thomas A. Adams,et al. Challenges and future directions for process and product synthesis and design , 2019, Comput. Chem. Eng..
[225] A. Beainy,et al. Simulink model for a PEM electrolyzer based on an equivalent electrical circuit , 2014, International Conference on Renewable Energies for Developing Countries 2014.
[226] M. Klell,et al. Theoretical and experimental analysis of an asymmetric high pressure PEM water electrolyser up to 155 bar , 2017 .
[227] I. Metcalfe,et al. Methanol Synthesis from CO/CO2/H2over Cu/ZnO/Al2O3at Differential and Finite Conversions , 1998 .
[228] Bin Chen,et al. Modeling of CH4-assisted SOEC for H2O/CO2 co-electrolysis , 2016 .
[229] Michael Baldea,et al. Modular manufacturing processes: Status, challenges, and opportunities , 2017 .
[230] A. Bazylak,et al. Pore network modelling to enhance liquid water transport through porous transport layers for polymer electrolyte membrane electrolyzers , 2019, Journal of Power Sources.
[231] M. Arentsen,et al. Techno-economic study of a zero-emission methanol based energy storage system , 2019, Energy Conversion and Management.
[232] Jonathan Deseure,et al. Modelling of solid oxide steam electrolyser: Impact of the operating conditions on hydrogen production , 2011 .
[233] A. Jensen,et al. The roles of CO and CO2 in high pressure methanol synthesis over Cu-based catalysts , 2020 .
[234] M. Bettahar,et al. In situ FT-IR and kinetic study of methanol synthesis from CO2/H2 over ZnAl2O4 and Cu-ZnAl2O4 catalysts , 1998 .
[235] H. Spliethoff,et al. Power-to-liquid via synthesis of methanol, DME or Fischer–Tropsch-fuels: a review , 2020, Energy & Environmental Science.
[236] S. Assabumrungrat,et al. Techno-economic analysis of alternative processes for alcohol-assisted methanol synthesis from carbon dioxide and hydrogen , 2020 .
[237] Jean-Paul Lange,et al. Methanol synthesis: a short review of technology improvements , 2001 .
[238] Tao Zhang,et al. State of the art and perspectives in heterogeneous catalysis of CO2 hydrogenation to methanol. , 2020, Chemical Society reviews.
[239] N. López,et al. Mechanism and microkinetics of methanol synthesis via CO2 hydrogenation on indium oxide , 2018 .
[240] Bin Chen,et al. A novel design of solid oxide electrolyser integrated with magnesium hydride bed for hydrogen generation and storage – A dynamic simulation study , 2017 .
[241] Evrim Örs,et al. Data-Driven Approach for Predictive Modeling of By-Product Formation in Methanol Synthesis , 2020 .
[242] Detlef Stolten,et al. Acidic or Alkaline? Towards a New Perspective on the Efficiency of Water Electrolysis , 2016 .
[243] F. Kapteijn,et al. Challenges in the Greener Production of Formates/Formic Acid, Methanol, and DME by Heterogeneously Catalyzed CO2 Hydrogenation Processes , 2017, Chemical reviews.
[244] T. M. Gür. Correction: Review of electrical energy storage technologies, materials and systems: challenges and prospects for large-scale grid storage , 2018 .
[245] S. Shiva Kumar,et al. Hydrogen production by PEM water electrolysis – A review , 2019 .
[246] H. Freund,et al. On the optimal design of load flexible fixed bed reactors: Integration of dynamics into the design problem , 2020 .
[247] J. Sehested. Industrial and scientific directions of methanol catalyst development , 2019, Journal of Catalysis.
[248] Jiří Jaromír Klemeš,et al. A review of cleaner production methods for the manufacture of methanol , 2013 .
[249] Tao Zhang,et al. Efficient alkaline hydrogen evolution on atomically dispersed Ni–Nx Species anchored porous carbon with embedded Ni nanoparticles by accelerating water dissociation kinetics , 2019, Energy & Environmental Science.
[250] Mogens Bjerg Mogensen,et al. Understanding degradation of solid oxide electrolysis cells through modeling of electrochemical potential profiles , 2016 .
[251] R. Schlögl,et al. Methanol Synthesis from Steel Mill Exhaust Gases: Challenges for the Industrial Cu/ZnO/Al2O3 Catalyst , 2018 .
[252] H. Caram,et al. The spherical reverse flow reactor , 2002 .
[253] Ligang Wang,et al. Power-to-fuels via solid-oxide electrolyzer: Operating window and techno-economics , 2019, Renewable and Sustainable Energy Reviews.
[254] T. Fujitani,et al. Development of an active Ga2O3 supported palladium catalyst for the synthesis of methanol from carbon dioxide and hydrogen , 1995 .
[255] Jesus Rodriguez,et al. Influence of operation parameters in the modeling of alkaline water electrolyzers for hydrogen production , 2014 .
[256] Shashwata Ghosh,et al. Feasibility of reactive distillation for methanol synthesis , 2019, Chemical Engineering and Processing - Process Intensification.
[257] E. Toklu,et al. A new analysis of two phase flow on hydrogen production from water electrolysis , 2021 .
[258] Albert K. Dearden,et al. Accuracy of Density Functional Theory for Predicting Kinetics of Methanol Synthesis from CO and CO2 Hydrogenation on Copper , 2018, The Journal of Physical Chemistry C.
[259] D. Ferrero,et al. Multilevel modeling of solid oxide electrolysis , 2020 .
[260] A. Schaadt,et al. Kinetic modelling of methanol synthesis over commercial catalysts: A critical assessment , 2020 .
[261] Mohammad Reza Rahimpour,et al. Simulation–based optimization of operating parameters for methanol synthesis process: Application of response surface methodology for statistical analysis , 2016 .
[262] A. Shahsavari,et al. Conversion and storage of solar energy in the forms of liquid fuel and electricity in a hybrid energy storage system using methanol and phase change materials , 2020 .
[263] S. Cha,et al. Review of solid oxide electrolysis cells: a clean energy strategy for hydrogen generation , 2019, Nanomaterials and Energy.
[264] Vittorio Tola,et al. Renewable methanol production and use through reversible solid oxide cells and recycled CO2 hydrogenation , 2019, Fuel.
[265] Luigi Glielmo,et al. Optimal operations for hydrogen-based energy storage systems in wind farms via model predictive control , 2021 .
[266] A. Urakawa,et al. High pressure plant for heterogeneous catalytic CO2 hydrogenation reactions in a continuous flow microreactor , 2013 .
[267] Simulation of Methanol Synthesis from CO2 Hydrogenation in a Packed Bed Reactor using COMSOL Multiphysics , 2019 .
[268] Remi Chauvy,et al. Alternative production of methanol from industrial CO2 , 2020 .
[269] Qianqian Chen,et al. Comparative environmental and economic performance of solar energy integrated methanol production systems in China , 2019, Energy Conversion and Management.
[270] Donghai Mei,et al. Mechanistic studies of methanol synthesis over Cu from CO/CO2/H2/H2O mixtures: The source of C in methanol and the role of water , 2013 .
[271] Kai Sundmacher,et al. Assessment of Methanol Synthesis Utilizing Exhaust CO2 for Chemical Storage of Electrical Energy , 2010 .
[272] Tong Zhang,et al. Pattern recognition in chemical process flowsheets , 2019 .
[273] A. Su,et al. Dynamic modeling of a solar hydrogen system under leakage conditions , 2008 .
[274] P. Tontiwachwuthikul,et al. Parametric Process Design and Economic Analysis of Post-Combustion CO2 Capture and Compression for Coal- and Natural Gas-Fired Power Plants , 2020, Energies.
[275] Ligang Wang,et al. Techno-Economic Optimization of CO2-to-Methanol with Solid-Oxide Electrolyzer , 2019, Energies.
[276] F. Wirkert,et al. A modular design approach for PEM electrolyser systems with homogeneous operation conditions and highly efficient heat management , 2020 .
[277] Kyoung‐Su Ha,et al. Kinetic modeling of methanol synthesis over commercial catalysts based on three-site adsorption , 2014 .
[278] Jack Brouwer,et al. Dynamic dispatch of solid oxide electrolysis system for high renewable energy penetration in a microgrid , 2020 .
[279] C. Cormos,et al. Improving methanol synthesis from carbon-free H2 and captured CO2: A techno-economic and environmental evaluation , 2018 .
[280] Andreas Venskutonis,et al. CFY-Stack Technology: The Next Design , 2015 .
[281] Dermot O'Hare,et al. CO2 Hydrogenation to Methanol over Catalysts Derived from Single Cationic Layer CuZnGa LDH Precursors , 2018 .
[282] Minbo Yang,et al. Modular methanol manufacturing from shale gas: Techno‐economic and environmental analyses of conventional large‐scale production versus small‐scale distributed, modular processing , 2018 .
[283] Edward S. Rubin,et al. Towards improved cost evaluation of Carbon Capture and Storage from industry , 2021, International Journal of Greenhouse Gas Control.
[284] T. Fujitani,et al. Methanol Synthesis from CO2 and H2 over Cu/ZnO/Ga2O3 Catalyst , 1993 .
[285] P. Lu,et al. CO2 hydrogenation to methanol over Cu/ZnO catalysts synthesized via a facile solid-phase grinding process using oxalic acid , 2017, Korean Journal of Chemical Engineering.
[286] G. Falcone,et al. Critical review of competitiveness indicators for energy projects , 2020, Renewable and Sustainable Energy Reviews.
[287] Massimo Santarelli,et al. Power-to-fuels through carbon dioxide Re-Utilization and high-temperature electrolysis: A technical and economical comparison between synthetic methanol and methane , 2018, Journal of Cleaner Production.
[288] A. Indarto. Partial oxidation of methane to methanol with nitrogen dioxide in dielectric barrier discharge plasma: experimental and molecular modeling , 2016 .
[289] D. S. Marlin,et al. Process Advantages of Direct CO2 to Methanol Synthesis , 2018, Front. Chem..
[290] Mamadou Lamine Doumbia,et al. New multi-physics approach for modelling and design of alkaline electrolyzers , 2012 .
[291] E. Tzimas,et al. Methanol synthesis using captured CO2 as raw material: Techno-economic and environmental assessment , 2016 .
[292] Pierre Olivier,et al. Low-temperature electrolysis system modelling: A review , 2017 .
[293] M. Takagawa,et al. Study on reaction rates for methanol synthesis from carbon monoxide, carbon dioxide, and hydrogen , 1987 .
[294] P. Aravind,et al. Dynamic modeling of reversible solid oxide cell stack and control strategy development , 2019, Energy Conversion and Management.
[295] Gao Qing Lu,et al. Recent advances in catalysts for methanol synthesis via hydrogenation of CO and CO2 , 2003 .
[296] M. J. Watson,et al. Understanding methanol synthesis from CO/H2 feeds over Cu/CeO2 catalysts , 2018, Journal of Catalysis.
[297] François Maréchal,et al. Reversible solid oxide systems for energy and chemical applications – Review & perspectives , 2019, Journal of Energy Storage.
[298] J. Nørskov,et al. Kinetic Implications of Dynamical Changes in Catalyst Morphology during Methanol Synthesis over Cu/ZnO Catalysts , 1997 .
[299] Payam Parvasi,et al. Dynamic optimization of a novel radial-flow, spherical-bed methanol synthesis reactor in the presence of catalyst deactivation using Differential Evolution (DE) algorithm , 2009 .
[300] E. Moioli,et al. Renewable energy storage via CO2 and H2 conversion to methane and methanol: Assessment for small scale applications , 2019, Renewable and Sustainable Energy Reviews.
[301] O. Deutschmann,et al. Performance analysis of a reversible solid oxide cell system based on multi-scale hierarchical solid oxide cell modelling , 2019, Energy Conversion and Management.
[302] B. Sundén,et al. A three dimensional multiphysics model of a solid oxide electrochemical cell: A tool for understanding degradation , 2018, International Journal of Hydrogen Energy.
[303] Mariano Martín,et al. Methodology for solar and wind energy chemical storage facilities design under uncertainty: Methanol production from CO2 and hydrogen , 2016, Comput. Chem. Eng..
[304] K. Parkhomenko,et al. Catalyst synthesis by continuous coprecipitation under micro-fluidic conditions: Application to the preparation of catalysts for methanol synthesis from CO2/H2 , 2016 .
[305] V. Buwa,et al. A computational approach for the selection of optimal catalyst shape for solid-catalysed gas-phase reactions , 2020 .
[306] S. Ledakowicz,et al. New numerical algorithm for solving multidimensional heterogeneous model of the fixed bed reactor , 2013 .
[307] Jong-Sook Lee,et al. Polarization mechanism of high temperature electrolysis in a Ni-YSZ/YSZ/LSM solid oxide cell by parametric impedance analysis , 2013 .
[308] Lingen Chen,et al. Entropy Generation Rate Minimization for Methanol Synthesis via a CO2 Hydrogenation Reactor , 2019, Entropy.
[309] André Bardow,et al. On the assessment of renewable industrial processes: Case study for solar co-production of methanol and power , 2016 .
[310] A. Bazylak,et al. Three-Dimensional Computational Fluid Dynamics Modelling of Oxygen Bubble Transport in Polymer Electrolyte Membrane Electrolyzer Porous Transport Layers , 2016 .
[311] Peter Zapol,et al. Carbon Dioxide Conversion to Methanol over Size-Selected Cu4 Clusters at Low Pressures. , 2015, Journal of the American Chemical Society.
[312] J. Nørskov,et al. Theoretical and Experimental Studies of CoGa Catalysts for the Hydrogenation of CO2 to Methanol , 2018, Catalysis Letters.
[313] Alberto Boretti,et al. Renewable hydrogen to recycle CO2 to methanol , 2013 .
[314] T. Al‐Ansari,et al. A review of carbon capture and utilisation as a CO2 abatement opportunity within the EWF nexus , 2021 .
[315] Robert J. Braun,et al. Model validation and performance analysis of regenerative solid oxide cells for energy storage applications: Reversible operation , 2014 .
[316] S. Jensen,et al. Eliminating degradation in solid oxide electrochemical cells by reversible operation. , 2015, Nature Materials.
[317] Yuhan Sun,et al. Core–shell structured Cu@m-SiO2 and Cu/ZnO@m-SiO2 catalysts for methanol synthesis from CO2 hydrogenation , 2016 .
[318] N. Menzler,et al. Performance assessment of industrial-sized solid oxide cells operated in a reversible mode: Detailed numerical and experimental study , 2020 .
[319] Tatiana Morosuk,et al. Advanced exergetic analysis : Approaches for splitting the exergy destruction into endogenous and exogenous parts , 2009 .
[320] A. Nuchitprasittichai,et al. Methanol Production via CO2 Hydrogenation: Sensitivity Analysis and Simulation—Based Optimization , 2019, Front. Energy Res..
[321] Andreas Lindermeir,et al. New SOFC‐Stack Design with Parallel‐Connected Cells – Basic Concept and Joining Aspects , 2015 .
[322] H. Vredenburg,et al. Insights into low-carbon hydrogen production methods: Green, blue and aqua hydrogen , 2021 .
[323] Jay H. Lee,et al. Process systems engineering issues and applications towards reducing carbon dioxide emissions through conversion technologies , 2016 .
[324] H. Gasteiger,et al. Analysis of Voltage Losses in PEM Water Electrolyzers with Low Platinum Group Metal Loadings , 2017 .
[325] A. Bogaerts,et al. Hydrogenation of Carbon Dioxide to Value-Added Chemicals by Heterogeneous Catalysis and Plasma Catalysis , 2019, Catalysts.
[326] Robert J. Braun,et al. Techno-economic and off-design analysis of stand-alone, distributed-scale reversible solid oxide cell energy storage systems , 2018, Energy Conversion and Management.
[327] Jongmin Park,et al. Practical Microkinetic Modeling Approach for Methanol Synthesis from Syngas over a Cu-Based Catalyst , 2019, Industrial & Engineering Chemistry Research.
[328] R. O. Santos,et al. Simulation and optimization of a methanol synthesis process from different biogas sources , 2018, Journal of Cleaner Production.
[329] Claude Etievant,et al. Hydrogen safety aspects related to high-pressure polymer electrolyte membrane water electrolysis , 2009 .
[330] Qingjuan Zheng,et al. Process Optimization of Coke Oven Gas to Methanol Based on the Downgrade of By-Product Steam , 2018, Transactions of Tianjin University.
[331] Chakib Bouallou,et al. Model-based behaviour of a high temperature electrolyser system operated at various loads , 2013 .
[332] N. Aluru,et al. A multiscale framework to predict electrochemical characteristics of yttrium doped Barium Zirconate based solid oxide cells , 2021 .
[333] O. Deutschmann,et al. Hierarchical modeling of solid oxide cells and stacks producing syngas via H2O/CO2 Co-electrolysis for industrial applications , 2018, Applied Energy.
[334] Hailong Liu,et al. A highly selective and stable ZnO-ZrO2 solid solution catalyst for CO2 hydrogenation to methanol , 2017, Science Advances.
[335] Ligang Wang,et al. Power-to-methane via co-electrolysis of H2O and CO2: The effects of pressurized operation and internal methanation , 2019, Applied Energy.
[336] A. Goeppert,et al. Advances in catalytic homogeneous hydrogenation of carbon dioxide to methanol , 2018 .
[337] Ligang Wang,et al. Multi-objective superstructure-free synthesis and optimization of thermal power plants , 2016 .
[338] Gilbert F. Froment,et al. A Steady-State Kinetic Model for Methanol Synthesis and the Water Gas Shift Reaction on a Commercial Cu/ZnO/Al2O3 Catalyst , 1996 .
[339] Rubén Ruiz-Femenia,et al. Systematic Tools for the Conceptual Design of Inherently Safer Chemical Processes , 2017 .
[341] Michel Zasadzinski,et al. Proton exchange membrane water electrolysis: Modeling for hydrogen flow rate control , 2021, International Journal of Hydrogen Energy.
[342] Giulia Bozzano,et al. Efficient methanol synthesis: Perspectives, technologies and optimization strategies , 2016 .
[343] Colin Pritchard,et al. On the use of electrolytic hydrogen from variable renewable energies for the enhanced conversion of biomass to fuels , 2008 .
[344] Belabbas Abou Bakr Tariq Walid,et al. Improved Design of the Lurgi Reactor for Methanol Synthesis Industry , 2018, Chemical Engineering & Technology.
[345] Hailong Li,et al. CO2 hydrogenation to methanol: the structure–activity relationships of different catalyst systems , 2020, Energy, Ecology and Environment.
[346] L. Bi,et al. A perspective on DRT applications for the analysis of solid oxide cell electrodes , 2020 .
[347] Robin J. White,et al. Economics & carbon dioxide avoidance cost of methanol production based on renewable hydrogen and recycled carbon dioxide – power-to-methanol , 2018 .
[348] S. Assabumrungrat,et al. Thermally double coupled reactor coupling aqueous phase glycerol reforming and methanol synthesis , 2020 .
[349] Yuhan Sun,et al. A review of research progress on heterogeneous catalysts for methanol synthesis from carbon dioxide hydrogenation , 2019, Catalysis Today.
[350] Umberto Desideri,et al. Potential of Reversible Solid Oxide Cells as Electricity Storage System , 2016 .
[351] CFD modeling of a compact reactor for methanol synthesis: Maximizing productivity with increased thermal controllability , 2019 .
[352] Ignacio E. Grossmann,et al. A review on superstructure optimization approaches in process system engineering , 2020, Comput. Chem. Eng..
[353] U. Desideri,et al. Techno-economic optimization of power-to-methanol with co-electrolysis of CO2 and H2O in solid-oxide electrolyzers , 2020 .
[354] S. Haussener,et al. Dynamic system modeling of thermally-integrated concentrated PV-electrolysis , 2021 .
[355] L. Kustov,et al. A Brief Review of Carbon Dioxide Hydrogenation to Methanol Over Copper and Iron Based Catalysts , 2017 .
[356] Armin D. Ebner,et al. State-of-the-art Adsorption and Membrane Separation Processes for Carbon Dioxide Production from Carbon Dioxide Emitting Industries , 2009 .
[357] A. Yang,et al. Power-to-methanol: The role of process flexibility in the integration of variable renewable energy into chemical production , 2021 .
[358] N. Nikačević,et al. Optimization of forced periodic operations in milli-scale fixed bed reactor for Fischer-Tropsch synthesis , 2020 .
[359] Mohammad Reza Rahimpour,et al. Hydrogenation of CO2 to value-added products—A review and potential future developments , 2014 .
[360] Jeewon Lee,et al. Biological conversion of methane to methanol , 2013, Korean Journal of Chemical Engineering.
[361] Tong Liu,et al. High temperature solid oxide H2O/CO2 co-electrolysis for syngas production , 2017 .
[362] Giulia Bozzano,et al. Dynamic modeling of the methanol synthesis fixed-bed reactor , 2013, Comput. Chem. Eng..
[363] D. Brilman,et al. A novel condensation reactor for efficient CO2 to methanol conversion for storage of renewable electric energy , 2015 .
[364] P. Foscolo,et al. Analysis of a 2-D model of a packed bed reactor for methanol production by means of CO2 hydrogenation , 2020 .
[365] Sousso Kelouwani,et al. Model for energy conversion in renewable energy system with hydrogen storage , 2005 .
[366] Rashid Abro,et al. Review of modelling and simulation strategies for evaluating corrosive behavior of aqueous amine systems for CO2 capture , 2020 .
[367] A. A. Kiss,et al. Novel efficient process for methanol synthesis by CO2 hydrogenation , 2016 .
[369] C. Körner,et al. Additively manufactured RANEY®-type copper catalyst for methanol synthesis , 2020 .
[370] Moonyong Lee,et al. Self-recuperative high temperature co-electrolysis-based methanol production with vortex search-based exergy efficiency enhancement , 2019 .
[371] Xue-qing Gong,et al. A promising low pressure methanol synthesis route from CO2 hydrogenation over Pd@Zn core–shell catalysts , 2017 .
[372] John Lygeros,et al. Electrolyzer Modeling and Real-Time Control for Optimized Production of Hydrogen Gas , 2021 .
[373] S. Upadhyayula,et al. Kinetics of CO2 hydrogenation to methanol over silica supported intermetallic Ga3Ni5 catalyst in a continuous differential fixed bed reactor , 2020 .
[374] Christos T. Maravelias,et al. Process Synthesis under Seasonal and Daily Variability: Application on Concentrating Solar Power , 2018 .
[375] Rached Ben-Mansour,et al. Carbon capture by physical adsorption: Materials, experimental investigations and numerical modeling and simulations – A review , 2016 .
[376] A. Hagen,et al. Durability of solid oxide electrolysis stack under dynamic load cycling for syngas production , 2020, Journal of Power Sources.
[377] Antonio J. Martín,et al. Indium Oxide as a Superior Catalyst for Methanol Synthesis by CO2 Hydrogenation. , 2016, Angewandte Chemie.
[378] I. Sharafutdinov. Investigations into low pressure methanol synthesis , 2013 .
[379] A. Demin,et al. Doped (Nd,Ba)FeO3 oxides as potential electrodes for symmetrically designed protonic ceramic electrochemical cells , 2020, Journal of Solid State Electrochemistry.
[380] E. Zondervan,et al. Dynamic hydrogen production from PV & wind direct electricity supply – Modeling and techno-economic assessment , 2020 .
[381] Diego Larrain,et al. Solid oxide fuel cell stack simulation and optimization, including experimental validation and transient behavior , 2005 .
[382] N. Guillet,et al. Membrane degradation in PEM water electrolyzer: Numerical modeling and experimental evidence of the influence of temperature and current density , 2015 .
[383] Shirish H. Sonawane,et al. A review on microreactors: Reactor fabrication, design, and cutting-edge applications , 2018, Chemical Engineering Science.
[384] C. Lamy,et al. A critical review on the definitions used to calculate the energy efficiency coefficients of water electrolysis cells working under near ambient temperature conditions , 2020 .
[385] T. Turek,et al. Alkaline Water Electrolysis Powered by Renewable Energy: A Review , 2020, Processes.
[386] S. Jokar,et al. A Novel Reactor Configuration for Industrial Methanol Production From the Synthesis Gas , 2019, Journal of Energy Resources Technology.
[387] Antonello Barresi,et al. Methanol synthesis in a forced unsteady-state reactor network , 2002 .
[388] Luisa C. Brée,et al. Power‐to‐X: Between Electricity Storage, e‐Production, and Demand Side Management , 2020, Chemie Ingenieur Technik.
[389] R. C. Samsun,et al. The biogas-oxyfuel process as a carbon source for power-to-fuel synthesis: Enhancing availability while reducing separation effort , 2021 .
[390] I. Manke,et al. Spatially resolved model of oxygen reduction reaction in silver-based porous gas-diffusion electrodes based on operando measurements , 2021 .
[391] Q. Fu,et al. CO2 hydrogenation to methanol over Cu/CeO2 and Cu/ZrO2 catalysts: Tuning methanol selectivity via metal-support interaction , 2020, Journal of Energy Chemistry.
[392] F. Larachi,et al. Enhanced Methanol Synthesis Process via an Integrated Process Involving CO2 Hydrogenation under Plasma Conditions , 2020, Industrial & Engineering Chemistry Research.
[393] M. Laguna-Bercero. Recent advances in high temperature electrolysis using solid oxide fuel cells: A review , 2012 .
[394] A. Schaadt,et al. A novel approach for kinetic measurements in exothermic fixed bed reactors: advancements in non-isothermal bed conditions demonstrated for methanol synthesis , 2021, Reaction Chemistry & Engineering.
[395] Q. Roode-Gutzmer,et al. Renewable Methanol Synthesis , 2019 .
[396] Yixiang Shi,et al. Dynamic electro-thermal modeling of co-electrolysis of steam and carbon dioxide in a tubular solid oxide electrolysis cell , 2015 .
[397] Kodjo Agbossou,et al. Simulation tool based on a physics model and an electrical analogy for an alkaline electrolyser , 2014 .
[398] M. W. Lee,et al. Role of the Zn atomic arrangements in enhancing the activity and stability of the kinked Cu(2 1 1) site in CH3OH production by CO2 hydrogenation and dissociation: First-principles microkinetic modeling study , 2019, Journal of Catalysis.
[399] S. Assabumrungrat,et al. Incorporation of hydrogen by-product from NaOCH3 production for methanol synthesis via CO2 hydrogenation: Process analysis and economic evaluation , 2019, Journal of Cleaner Production.
[400] Christos T. Maravelias,et al. A general framework for the assessment of solar fuel technologies , 2015 .
[401] Günter Schiller,et al. Numerical Simulation of Steam Electrolysis with a Solid Oxide Cell for Proper Evaluation of Cell Performances , 2016 .
[402] A. Urakawa,et al. From CO or CO2?: space-resolved insights into high-pressure CO2 hydrogenation to methanol over Cu/ZnO/Al2O3 , 2020, Catalysis Science & Technology.
[403] Jingke Mo,et al. Effects of membrane electrode assembly properties on two-phase transport and performance in proton exchange membrane electrolyzer cells , 2016 .
[404] K. Friedrich,et al. Dynamic and steady state analysis of a power to methane system using a commercial solid oxide cell (SOC) electrochemical reactor , 2018 .
[405] Xiaoming Guo,et al. Enhanced performance of the CuO-ZnO-ZrO2 catalyst for CO2 hydrogenation to methanol by WO3 modification , 2018, Applied Surface Science.
[406] R. Schlögl,et al. Hydrogenation of CO2 to methanol and CO on Cu/ZnO/Al2O3: Is there a common intermediate or not? , 2015 .
[407] Meng Ni,et al. 2D thermal modeling of a solid oxide electrolyzer cell (SOEC) for syngas production by H2O/CO2 co-electrolysis , 2012 .
[408] J. Besson,et al. A leakage model to design seals for solid oxide fuel and electrolyser cell stacks , 2014 .
[409] A. Jensen,et al. Quantification of Formate and Oxygen Coverages on Cu Under Industrial Methanol Synthesis Conditions , 2020, Catalysis Letters.
[410] Min Liu,et al. A robust surrogate model of a solid oxide cell based on an adaptive polynomial approximation method , 2020 .
[411] Pertti Kauranen,et al. Development of a self-sufficient solar-hydrogen energy system , 1994 .
[412] K. Pant,et al. Comprehending the contemporary state of art in biogas enrichment and CO2 capture technologies via swing adsorption , 2020 .
[413] Dongke Zhang,et al. Recent progress in alkaline water electrolysis for hydrogen production and applications , 2010 .
[414] N. Shah,et al. Process exploration and assessment for the production of methanol and dimethyl ether from carbon dioxide and water , 2017 .
[415] John Bøgild Hansen,et al. Solid oxide electrolysis--a key enabling technology for sustainable energy scenarios. , 2015, Faraday discussions.
[416] Iva Ridjan Skov,et al. Flexible Carbon Capture and Utilization technologies in future energy systems and the utilization pathways of captured CO2 , 2019, Renewable and Sustainable Energy Reviews.
[417] Q. Ge,et al. CO2 hydrogenation to methanol over Pd/In2O3: effects of Pd and oxygen vacancy , 2017 .
[418] Laureano Jiménez,et al. Design of a New Sustainable Methanol Plant Coupled to an Ethanol Distillery , 2017 .