CH4/H2O/H2辅助热催化CO2转化机制

[1] Efficient conversion of solar energy through a macroporous ceramic receiver coupling heat transfer and thermochemical reactions.[J].Guene Lougou Bachirou;Wu Lianxuan;Ma Danni;Geng Boxi;Jiang Boshu;Han Donmei;Zhang Hao;Łapka Piotr;Shuai Yong.Energy.2023,

[2] Design of gas-liquid two-phase separation device with application in solar hydrogen production system.[J].Geng Boxi;Guene Lougou Bachirou;Shuai Yong;Zhang Hao;Pan Qinghui;Han Dongmei;Jiang Boshu;Wu Lianxuan;Wang Ziyue.Renewable and Sustainable Energy Reviews.2023,

[3] Selection of iron-based oxygen carriers for two-step solar thermochemical splitting of carbon dioxide.[J].Zhang Hao;Zhang Xiaomi;Yang Dazhi;Shuai Yong;Lougou Bachirou Guene;Pan Qinghui;Wang Fuqiang.Energy Conversion and Management.2023,

[4] Experimentally validated numerical model of multi-spectral bands radiative transport in solar receiver/reactor with photo-active porous absorber reacting media.[J].Wu Lianxuan;Guene Lougou Bachirou;Jiang Boshu;Zhang Hao;Guo Yanming;Geng Boxi;Yan TianTian;Łapka Piotr;Shuai Yong.Energy Conversion and Management.2023,

[5] Preparation and solar thermochemical properties analysis of NiFe2O4SiC/ @Si3N4 for high-performance CO2-splitting.[J].Jiang Boshu;Guene Lougou Bachirou;Zhang Hao;Geng Boxi;Wu Lianxuan;Shuai Yong.Applied Energy.2022, @

[6] Combined heat and mass transfer analysis of solar reactor integrating porous reacting media for water and carbon dioxide splitting.[J].Shuai Yong;Guene Lougou Bachirou;Zhang Hao;Han Dongmei;Jiang Boshu;Zhao Jiupeng;Huang Xing.Solar Energy.2022,

[7] Enhanced CO2 hydrogenation to higher alcohols over K-Co promoted In2O3 catalysts.[J].Witoon Thongthai;Numpilai Thanapha;Nijpanich Supinya;Chanlek Narong;Kidkhunthod Pinit;Cheng Chin Kui;Ng Kim Hoong;Vo Dai-Viet N.;Ittisanronnachai Somlak;Wattanakit Chularat;Chareonpanich Metta;Limtrakul Jumras.Chemical Engineering Journal.2022, P3

[8] Regulating the Interfacial Synergy of Ni/Ga2O3 for CO2 Hydrogenation toward the Reverse Water-Gas Shift Reaction [J]. INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 2021, 60 (26) : 9448 - 9455

[9] What Are the Best Active Sites for CO2 Methanation over Ni/CeO2? [J]. ENERGY & FUELS, 2021, 35 (06) : 5241 - 5251

[10] Crystallographic Orientation Dependence of Surface Segregation and Alloying on PdCu Catalysts for CO₂ Hydrogenation..[J].Pielsticker Lukas;Zegkinoglou Ioannis;Han ZhongKang;Navarro Juan J;Kunze Sebastian;Karslıoğlu Osman;Levchenko Sergey V;Roldan Cuenya Beatriz.The journal of physical chemistry letters.2021, 10

[1] Efficient conversion of solar energy through a macroporous ceramic receiver coupling heat transfer and thermochemical reactions.[J].Guene Lougou Bachirou;Wu Lianxuan;Ma Danni;Geng Boxi;Jiang Boshu;Han Donmei;Zhang Hao;Łapka Piotr;Shuai Yong.Energy.2023,

[2] Design of gas-liquid two-phase separation device with application in solar hydrogen production system.[J].Geng Boxi;Guene Lougou Bachirou;Shuai Yong;Zhang Hao;Pan Qinghui;Han Dongmei;Jiang Boshu;Wu Lianxuan;Wang Ziyue.Renewable and Sustainable Energy Reviews.2023,

[3] Selection of iron-based oxygen carriers for two-step solar thermochemical splitting of carbon dioxide.[J].Zhang Hao;Zhang Xiaomi;Yang Dazhi;Shuai Yong;Lougou Bachirou Guene;Pan Qinghui;Wang Fuqiang.Energy Conversion and Management.2023,

[4] Experimentally validated numerical model of multi-spectral bands radiative transport in solar receiver/reactor with photo-active porous absorber reacting media.[J].Wu Lianxuan;Guene Lougou Bachirou;Jiang Boshu;Zhang Hao;Guo Yanming;Geng Boxi;Yan TianTian;Łapka Piotr;Shuai Yong.Energy Conversion and Management.2023,

[5] Preparation and solar thermochemical properties analysis of NiFe2O4SiC/ @Si3N4 for high-performance CO2-splitting.[J].Jiang Boshu;Guene Lougou Bachirou;Zhang Hao;Geng Boxi;Wu Lianxuan;Shuai Yong.Applied Energy.2022, @

[6] Combined heat and mass transfer analysis of solar reactor integrating porous reacting media for water and carbon dioxide splitting.[J].Shuai Yong;Guene Lougou Bachirou;Zhang Hao;Han Dongmei;Jiang Boshu;Zhao Jiupeng;Huang Xing.Solar Energy.2022,

[7] Enhanced CO2 hydrogenation to higher alcohols over K-Co promoted In2O3 catalysts.[J].Witoon Thongthai;Numpilai Thanapha;Nijpanich Supinya;Chanlek Narong;Kidkhunthod Pinit;Cheng Chin Kui;Ng Kim Hoong;Vo Dai-Viet N.;Ittisanronnachai Somlak;Wattanakit Chularat;Chareonpanich Metta;Limtrakul Jumras.Chemical Engineering Journal.2022, P3

[8] Regulating the Interfacial Synergy of Ni/Ga2O3 for CO2 Hydrogenation toward the Reverse Water-Gas Shift Reaction [J]. INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 2021, 60 (26) : 9448 - 9455

[9] What Are the Best Active Sites for CO2 Methanation over Ni/CeO2? [J]. ENERGY & FUELS, 2021, 35 (06) : 5241 - 5251

[10] Crystallographic Orientation Dependence of Surface Segregation and Alloying on PdCu Catalysts for CO₂ Hydrogenation..[J].Pielsticker Lukas;Zegkinoglou Ioannis;Han ZhongKang;Navarro Juan J;Kunze Sebastian;Karslıoğlu Osman;Levchenko Sergey V;Roldan Cuenya Beatriz.The journal of physical chemistry letters.2021, 10