Analysis of the energetic, economic, and environmental performance of hydrogen utilization for port logistic activities
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[1] C. Cormos,et al. Carbon Dioxide Capture in the Iron and Steel Industry: Thermodynamic Analysis, Process Simulation, and Life Cycle Assessment , 2023, Chemical and Biochemical Engineering Quarterly.
[2] E. Epelle,et al. Process design, exergy, and economic assessment of a conceptual mobile autothermal methane pyrolysis unit for onsite hydrogen production , 2023, Energy Conversion and Management.
[3] W. Afzal,et al. Process Simulation and Life Cycle Assessment of Waste Plastics: A Comparison of Pyrolysis and Hydrocracking , 2022, Molecules.
[4] H. Manier,et al. Life cycle optimization for hydrogen supply chain network design , 2022, International Journal of Hydrogen Energy.
[5] J. Brouwer,et al. Comment on “How green is blue hydrogen?” , 2022, Energy Science & Engineering.
[6] Xian Zhang,et al. A levelized cost of hydrogen (LCOH) comparison of coal-to-hydrogen with CCS and water electrolysis powered by renewable energy in China , 2021, Energy.
[7] M. Fermeglia,et al. Fuelling power plants by natural gas: An analysis of energy efficiency, economical aspects and environmental footprint based on detailed process simulation of the whole carbon capture and storage system , 2021, Energy Conversion and Management.
[8] F. Vega,et al. Modeling and simulation of an integrated power-to-methanol approach via high temperature electrolysis and partial oxy-combustion technology , 2021, International Journal of Hydrogen Energy.
[9] Jianlong Wang,et al. Review and comparison of various hydrogen production methods based on costs and life cycle impact assessment indicators , 2021, International Journal of Hydrogen Energy.
[10] Jo‐Shu Chang,et al. Process simulation development of a clean waste-to-energy conversion power plant: Thermodynamic and environmental assessment , 2021 .
[11] M. Mazzotti,et al. On the climate impacts of blue hydrogen production , 2021, Sustainable Energy & Fuels.
[12] N. Armaroli,et al. The hydrogen dilemma in Italy’s energy transition , 2021, Nature Italy.
[13] R. Dargaville,et al. Life-cycle greenhouse gas emissions and net energy assessment of large-scale hydrogen production via electrolysis and solar PV , 2021, Energy & Environmental Science.
[14] M. Jacobson,et al. How green is blue hydrogen? , 2021, Energy Science & Engineering.
[15] Maurizio Fermeglia,et al. Multiscale modelling techniques in life cycle assessment: Application to nanostructured polymer systems in the maritime industry , 2021 .
[16] W. Won,et al. Scenario-Based Techno-Economic Analysis of Steam Methane Reforming Process for Hydrogen Production , 2021, Applied Sciences.
[17] I. MacGill,et al. A framework for assessing economics of blue hydrogen production from steam methane reforming using carbon capture storage & utilisation , 2021 .
[18] C. Cormos,et al. Process simulation coupled with LCA for the evaluation of liquid - liquid extraction processes of phenol from aqueous streams , 2021 .
[19] Ahmet Kusoglu,et al. New roads and challenges for fuel cells in heavy-duty transportation , 2021, Nature Energy.
[20] R. O'Shea,et al. Decarbonising ships, planes and trucks: An analysis of suitable low-carbon fuels for the maritime, aviation and haulage sectors , 2021, Advances in Applied Energy.
[21] A. Forcina,et al. Analyzing the levelized cost of hydrogen in refueling stations with on-site hydrogen production via water electrolysis in the Italian scenario , 2020 .
[22] Eleazer P. Resurreccion,et al. Techno-economic analysis and life-cycle assessment of jet fuels production from waste cooking oil via in situ catalytic transfer hydrogenation , 2020 .
[23] R. Leinfelder,et al. Extraordinary human energy consumption and resultant geological impacts beginning around 1950 CE initiated the proposed Anthropocene Epoch , 2020, Communications Earth & Environment.
[24] S. Jensen,et al. Life cycle assessment of H2O electrolysis technologies , 2020 .
[25] F. Bezzo,et al. Hydrogenation to convert CO 2 to C1 chemicals: Technical comparison of different alternatives by process simulation , 2020 .
[26] C. Clemente-Jul,et al. Aspen Plus model of an alkaline electrolysis system for hydrogen production , 2020 .
[27] I. Capellán-Pérez,et al. Dynamic Energy Return on Energy Investment (EROI) and material requirements in scenarios of global transition to renewable energies , 2019, Energy Strategy Reviews.
[28] Matteo Chiesa,et al. Comparative net energy analysis of renewable electricity and carbon capture and storage , 2019, Nature Energy.
[29] Stefan Reichelstein,et al. Economics of converting renewable power to hydrogen , 2019, Nature Energy.
[30] P. Ekins,et al. The role of hydrogen and fuel cells in the global energy system , 2019, Energy & Environmental Science.
[31] Sandeep Kumar,et al. Nutrient recycling in large-scale microalgal production: Mass and energy analysis of two recovery strategies by process simulation , 2018 .
[32] J. C. van den Bergh,et al. Implications of net energy-return-on-investment for a low-carbon energy transition , 2018, Nature Energy.
[33] Catherine Azzaro-Pantel,et al. Coupling life cycle assessment with process simulation for ecodesign of chemical processes , 2018 .
[34] A. Angelis-Dimakis,et al. Life Cycle Assessment and Water Footprint of Hydrogen Production Methods: From Conventional to Emerging Technologies , 2018 .
[35] S. Fan,et al. Energy efficiency simulation of the process of gas hydrate exploitation from flue gas in an electric power plant , 2017 .
[36] Mark A. J. Huijbregts,et al. ReCiPe2016: a harmonised life cycle impact assessment method at midpoint and endpoint level , 2016, The International Journal of Life Cycle Assessment.
[37] Chakib Bouallou,et al. Investigation of power-to-methanol processes coupling electrolytic hydrogen production and catalytic CO2 reduction , 2016 .
[38] Paulo Smith Schneider,et al. Performance analysis of a CCGT power plant integrated to a LNG regasification process , 2015 .
[39] Andrea Ramírez,et al. Techno-economic assessment of CO2 capture at steam methane reforming facilities using commercially available technology , 2012 .
[40] A. Martins,et al. Simulation and life cycle assessment of process design alternatives for biodiesel production from waste vegetable oils , 2010 .
[41] H. Salehfar,et al. Semiempirical model based on thermodynamic principles for determining 6 kW proton exchange membrane electrolyzer stack characteristics , 2008 .
[42] R. Dickson,et al. Comparative sustainability assessment of a hydrogen supply network for hydrogen refueling stations in Korea – a techno-economic and lifecycle assessment perspective , 2021, Green Chemistry.
[43] Maria Grahn,et al. Electrofuels for the transport sector: A review of production costs , 2018 .
[44] A. Arpornwichanop,et al. Flowsheet-based model and exergy analysis of solid oxide electrolysis cells for clean hydrogen production , 2018 .
[45] Charles A. S. Hall,et al. EROI of different fuels and the implications for society , 2014 .
[46] R. García‐Valverde,et al. Simple PEM water electrolyser model and experimental validation , 2012 .