Amir Alihoseinzadeh, Abbas Ali Khodadadi, Yadollah Mortazavi. Hungría, G. Munuera, D. Gamarra. O electrode for the selective production of C Surfactant-assisted hydrothermal synthesis of CuCr2O4 spinel catalyst and its application in CO oxidation process. A. CuO + H2 -> Cu + H2O B. HBr + KOH -> H2O + KBr C. SO2 + H2O -> H2SO3 D. 2 HI -> I2 + H2. Which ions in the following reaction would be classified as spectator ions? 30 In the Reaction Represented by the Following Equation: Cuo (S) + H2 (G) → Cu (S) + H2o (1) (A) Name the Substance Oxidised (B) Name the Substance Reduced (C) Name the Oxidising Agent (D) Name the Reducing Agent Concept: Types of Chemical Reactions - Oxidation and Reduction. Rezaie, B. Jankovic, S. Mentus. Selective hydrogenolysis of glycerol to 1,2-propanediol over highly active copper-magnesia catalysts: reaction parameter, catalyst stability and mechanism study. (c) If 20.0 g of H2 reacts with 40.0 g of CuO which reactant is limiting? c. How many grams of Cu (s) are produced : Cu (s) produced = 0.25*63.546 =15.8865gm 4 CO dimerization on mixed-valence copper oxide surface. Ju-Xiang Qin, Peng Tan, Yao Jiang, Xiao-Qin Liu, Qiu-Xia He, Lin-Bing Sun. Bridging the temperature and pressure gaps: close-packed transition metal surfaces in an oxygen environment. ii Lu Yuan, Qiyue Yin, Yiqian Wang, Guangwen Zhou. Preferential oxidation of CO in a H2-rich stream over CuO/CeO2 and CuO/(Ce,M)Ox (M=Zr, Tb) catalysts. Dieuzeide, R. de Urtiaga, M. Jobbagy, N. Amadeo. Now one mole of H2 reacts with one mole of CuO to give Cu (s) and H2O (g),. Reduction of CuO nanowires confined by a nano test tube. N Samantha A. Mock, Elizabeth T. Zell, Shaikh T. Hossain, Ruigang Wang. Hydrogenation of methyl levulinate to γ-valerolactone over Cu─Mg oxide using MeOH as Ferroelectric oxide surface chemistry: water splitting via pyroelectricity. via ) and its selective reduction to Cu( Please register to post comments. A. K. Gatin, M. V. Grishin, N. V. Dokhlikova, S. A. Ozerin, S. Yu. CuOx/CeO2 catalyst derived from metal organic framework for reverse water-gas shift reaction. Synthesis of metallic copper nanoparticles using copper oxide nanoparticles as precursor and their metal–metal bonding properties. Microreactor with copper oxide nanostructured films for catalytic gas phase oxidations. Moles of cu (s) produced will be 0.25 only. Strong metal-oxide interactions induce bifunctional and structural effects for Cu catalysts. 1 answer. in situ CuO nanoparticles encapsulated inside Al-MCM-41 mesoporous materials via direct synthetic route. Photocatalytic CO2 reduction with H2 as reductant over copper and indium co-doped TiO2 nanocatalysts in a monolith photoreactor. Inkjet-Printed Nanoscaled CuO for Miniaturized Gas-Sensing Devices. X-ray photoemission study of the temperature-dependent CuO formation on Cu(410) using an energetic S.G. Sanches, J. Huertas Flores, M.I. Solution for CuO + H2 ⇌ Cu + H2O CO2 + H2 ⇌ 2CO + H2O H2 + F2 ⇌ 2 HF Fe + O2 ⇌ Fe2O3 NaOH + HCl NaCl + H2O Yanwei Zhang, Hui Yang, Junhu Zhou, Zhihua Wang, Jianzhong Liu, Kefa Cen. Cu/ZnO and Cu/ZnO/ZrO 2 catalysts used for methanol steam reforming. Canton. Catalytic decomposition of sulfuric acid over CuO/CeO2 in the sulfur–iodine cycle for hydrogen production. Simona Somacescu, Laura Navarrete, Mihaela Florea, Jose Maria Calderon-Moreno, Jose Manuel Serra. Thermochemical preparation of W–25%Cu nanocomposite powder through a CVT mechanism. Simplified direct pyrolysis method for preparation of nanocrystalline iron based catalysts for H 2 purification via high temperature water gas shift reaction. M. S. Tivanov, E. A. Kolesov, A. G. Praneuski, O. V. Korolik, A. M. Saad, I. V. Komissarov, N. G. Kovalchuk. supported on multi-walled carbon nanotubes. Toshikazu Satoh, Toshitaka Ishizaki, Kunio Akedo. Yasheng Maimaiti, Michael Nolan, Simon D. Elliott. Zheng, Q. Zhu, M. Abdellah, D. Haase, T. Pullerits, O. Solorza-Feria, S.E. Cheng Wang, Qingpeng Cheng, Xinlei Wang, Kui Ma, Xueqin Bai, Sirui Tan, Ye Tian, Tong Ding, Lirong Zheng, Jing Zhang, Xingang Li. M. Ferrandon, V. Daggupati, Z. Wang, G. Naterer, L. Trevani. Na Hirotoshi Inui, Keigo Takeda, Hiroki Kondo, Kenji Ishikawa, Makoto Sekine, Hiroyuki Kano, Naofumi Yoshida, Masaru Hori. Formation of Copper–Nickel Alloy from Their Oxide Mixtures Through Reduction by Low-Temperature Hydrogen Plasma. `CuO(s) + H_2(g) -> Cu(s) + H2O(l)` In this reaction, copper (II) oxide reacts with hydrogen to generate copper metal and water. Self-supported copper (Cu) and Cu-based nanoparticle growth by bottom-up process onto borophosphate glasses. but PhC2H5 + O2 = PhOH + CO2 + H2O will; Compound states [like (s) (aq) or (g)] are not required. 2 CuO(s) + H2(g) -> Cu(s) + H2O(l) delta H = -129.7 kJ so yu can see that water is involved, which it is NOT in the Enth. /SiC catalysts in the sulfur-iodine cycle for hydrogen production. Balance the reaction of CuO + H2 = Cu + H2O2 using this chemical equation balancer! SnO Rapid template-free synthesis of an air-stable hierarchical copper nanoassembly and its use as a reusable catalyst for 4-nitrophenol reduction. 2 Rezaie, M.T. x Q. Imtiaz, P. M. Abdala, A. M. Kierzkowska, W. van Beek, S. Schweiger, J. L. M. Rupp, C. R. Müller. Incorporation of Cu( Journal of Physics and Chemistry of Solids. Smita Mondal, Rathikanti Janardhan, Mohan Lal Meena, Prakash Biswas. H20: H a +1; O a -2. from the reactants to the products: Cu goes from a +2 to a 0; it gained electrons and is reduced. Baowen Wang, Haibo Zhao, Ying Zheng, Zhaohui Liu, Rong Yan, Chuguang Zheng. Since the species gain one or more electrons in reduction, the oxidation number decreases. H2O nanosheets for selective cinnamyl alcohol oxidation to cinnamaldehyde. Therefore, (a) 0.25 Moles of H2 (g) will react. Chenglong Lei, Haifu Huang, Ye Huang, Zhenzhi Cheng, Shaolong Tang, Youwei Du. Cu: a 0. Ana E. Platero-Prats, Zhanyong Li, Leighanne C. Gallington, Aaron W. Peters, Joseph T. Hupp, Omar K. Farha, Karena W. Chapman. Xianqin Wang, Jonathan C. Hanson, Gang Liu, José A. Rodriguez, Ana Iglesias-Juez, Marcos Fernández-Garcı́a. Already a member? Determine the volume of H2(g) at 765 mm Hg and 225 ?C that would be needed to form 35.5 g Cu(s). Teruki Naito, Nobuaki Konno, Takashi Tokunaga, Toshihiro Itoh. Yong Qin, Thorsten Staedler, Xin Jiang. Electrode Build-Up of Reducible Metal Composites toward Achievable Electrochemical Conversion of Carbon Dioxide. Journal of Environmental Chemical Engineering. Librarians & Account Managers. M. Ardestani, H. Arabi, H. Razavizadeh, H.R. Formation and stability of small well-defined Cu- and Ni oxide particles. A. Kuzmin, A. Anspoks, A. Kalinko, J. Timoshenko, R. Kalendarev. Kinetics of mechanical activation of Al/CuO thermite. Which of the following is not an example of redox reaction? M. Hashempour, H. Razavizadeh, H.R. Also, the oxidation number of H increases from 0 in H 2 to +1 in H 2 O i.e., H 2 is oxidized … B. HBr + KOH -> H2O + KBr. Ag-Cu catalysts for ethylene epoxidation: Selectivity and activity descriptors. Robert L. Z. Hoye, Riley E. Brandt, Yulia Ievskaya, Shane Heffernan, Kevin P. Musselman, Tonio Buonassisi, Judith L. MacManus-Driscoll. Wellington H. Cassinelli, Leandro Martins, Aline R. Passos, Sandra H. Pulcinelli, Amélie Rochet, Valérie Briois, Celso V. Santilli. , CuNbO Screened coulomb hybrid DFT investigation of band gap and optical absorption predictions of CuVO Reason(R): Cu is a less reactive metal. In This Reaction, Which Substances Arethe Oxidizing Agent And Reducing Agent, Respectively? Joaquim Badalo Branco, Danielle Ballivet-Tkatchenko, António Pires de Matos. Pais da Silva. An efficient route to Cu2O nanorod array film for high-performance Li-ion batteries. Zn + 2H+ + 2 Cl -> Zn2+ + 2 Cl- … Novel hybrid nanocomposites of polyhedral Cu O. Peña, L. Rodríguez-Fernández, J.C. Cheang-Wong, P. Santiago, A. Crespo-Sosa, E. Muñoz, A. Oliver. catalysts and their role in ethanol–acetone mixture conversion. CuO(s) + H2(g) Cu(s) + H2O(g) Copper(II) oxide is reduced to copper by hydrogen. O Films. 2 Sign up now, Latest answer posted June 29, 2016 at 11:04:16 AM, Latest answer posted January 29, 2014 at 6:29:57 PM, Latest answer posted March 11, 2016 at 5:07:45 AM, Latest answer posted August 13, 2012 at 4:17:37 PM, Latest answer posted March 23, 2013 at 10:51:29 PM. Identify the reactants and the products. X-ray absorption spectroscopy of Cu-doped WO3 films for use in electrochemical metallization cell memory. ChemicalAid. Evolution of H2 photoproduction with Cu content on CuO -TiO2 composite catalysts prepared by a microemulsion method. Guangwen Zhou, Weiying Dai, Judith C. Yang. Karla Hillerich, Kimberly A. Dick, Maria E. Messing, Knut Deppert, Jonas Johansson. Hirone Iwamoto, Satoshi Kameoka, Ya Xu, Chikashi Nishimura, An Pang Tsai. Optimization and performance of highly efficient hydrogen getter applied in high vacuum multilayer insulation cryogenic tank. O Diogo P. Volanti, André G. Sato, Marcelo O. Orlandi, José M. C. Bueno, Elson Longo, Juan Andrés. Preferential oxidation of CO in rich H2 over CuO/CeO2: Details of selectivity and deactivation under the reactant stream. IEEE Transactions on Components, Packaging and Manufacturing Technology. Jae Y Kim, Jonathan C Hanson, Anatoly I Frenkel, Peter L Lee, José A Rodriguez. + Hongbo Zhang, Christian Canlas, A. Jeremy Kropf, Jeffrey W. Elam, James A. Dumesic, Christopher L. Marshall. Effect of Reduction Treatment on CO Oxidation with CeO Effect of anionic admixtures on the copper–magnesium mixed oxide reduction. Then, How is this displacement reaction occurring? K. Suarez-Alcantara, D.C. Martínez-Casillas, K.B. /Pt via local electrochemical reduction. nanoparticles embedded in 3D nanoporous/solid copper current collectors for high-performance reversible lithium storage. Add / Edited: 21.09.2014 / Evaluation of information: 5.0 out of 5 / number of votes: 1. Joon-Phil Choi, Geon-Yong Lee, Jun-Il Song, Joon-Chul Yun, Jai-Sung Lee. Expeditious low-temperature sintering of copper nanoparticles with thin defective carbon shells. and Ar Mixture Gases. Kharatyan. Picture of reaction: Сoding to search: CuO + 2 NaOH + H2O = Na2CuOH4. Example: C6H12O6 + 6O2 → 6Co2 + 6H2O + heat (iii) The reaction in which O2 is added or H2 is removed or loss of electron take place. 2 Cu Reaction stoichiometry could be computed for a balanced equation. Solution phase synthesis and intense pulsed light sintering and reduction of a copper oxide ink with an encapsulating nickel oxide barrier. A Convenient Surfactant-Mediated Hydrothermal Approach to Control Supported Copper Oxide Species for Catalytic Upgrading of Glucose to Lactic Acid. Journal of Materials Science and Chemical Engineering. Allan Hedin, Adam Johannes Johansson, Christina Lilja, Mats Boman, Pedro Berastegui, Rolf Berger, Mikael Ottosson. Chengli Huo, Jing Ouyang, Huaming Yang. Wellington H. Cassinelli, Leandro Martins, Aline R. Passos, Sandra H. Pulcinelli, Celso V. Santilli, Amélie Rochet, Valérie Briois. Shrinking of hollow Cu2O and NiO nanoparticles at high temperatures. Rao, N.D. Browning, P. Moeck. Hui Yang, Yanwei Zhang, Junhu Zhou, Zhihua Wang, Jianzhong Liu, Kefa Cen. Jae Y. Kim, Jose A. Rodriguez, Jonathan C. Hanson, Anatoly I. Frenkel, Peter L. Lee. The oxidation number of copper goes from +2 (in CuO) to 0 (in Cu), while hydrogen's oxidation number goes from 0 (in H2) to +1 (in water). Production of 1,2-Propanediol from Renewable Glycerol Over Highly Stable and Efficient Cu–Zn(4:1)/MgO Catalyst. Hybrid catalytic-DBD plasma reactor for the production of hydrogen and preferential CO oxidation (CO-PROX) at reduced temperatures. Significant G peak temperature shift in Raman spectra of graphene on copper. Li-bin Wu, Liang-hua Wu, Wei-min Yang, Anatoly I. Frenkel. ChemicalAid; ... CuO + H2 = Cu + H2O2 - Chemical Equation Balancer. of Formation. ) within confined spaces: efficient active sites for CO adsorption. Golnaz Taghavi, Hamid Reza Rezaie, Hekmat Razavizadeh. On the mechanism controlling the redox kinetics of Cu-based oxygen carriers. Influence of CuO nanostructures morphology on hydrogen gas sensing performances. Yu Yin, Peng Tan, Xiao-Qin Liu, Jing Zhu, Lin-Bing Sun. hydrogen source. Annu. 2 Comparative Study of the Physico-Chemical Properties of Nanocrystalline CuO–ZnO–Al2O3 Prepared from Different Precursors: Hydrogen Production by Vaporeforming of Bioethanol. Using 3 Label the reactants and products. Ramona Thalinger, Marc Heggen, Daniel G. Stroppa, Michael Stöger-Pollach, Bernhard Klötzer, Simon Penner. Antonio Narcisio Pinheiro, Regina Claudia Rodrigues dos Santos, Sarah Brenda Ferreira dos Santos, Moacir José da Silva Júnior, Tiago Pinheiro Braga, Valder Nogueira Freire, Antoninho Valentini. Vapor phase hydrogenolysis of glycerol to 1,2-propanediol at atmospheric pressure over copper catalysts supported on mesoporous alumina. Hydrogen production by tailoring the brookite and Cu2O ratio of sol-gel Cu-TiO2 photocatalysts. Effect of Pre-treatment Method on Reactivity of WGS Catalyst for SEWGS System. Laura Hill-Pastor, Lucia Juarez-Amador, M. Vasquez-Agustin, Miguel Galvan-Arellano, Tomas Diaz-Becerril, Ramon Pena-Sierra. Ngoc Linh Nguyen, Stefano de Gironcoli, Simone Piccinin. Oxidation of copper at high temperature as an example for gas-solid reactions in a downer reactor – experiments and model-based analysis. Reduction processes in Cu/SiO2, Co/SiO2, and CuCo/SiO2 catalysts. ChemicalAid. 2 In this reaction, copper (II) oxide reacts with hydrogen to generate copper metal and water. Characterization of a Poly-4-Vinylpyridine-Supported CuPd Bimetallic Catalyst for Sonogashira Coupling Reactions. Nithima Khaorapapong, Nuttaporn Khumchoo, Makoto Ogawa. Size induced structural modifications in copper oxide nanoparticles synthesized via laser ablation in liquids. Importance of the Initial Oxidation State of Copper for the Catalytic Hydrogenation of Dimethyl Oxalate to Ethylene Glycol. Sintering of Copper Particles for Die Attach. Functionalization of metal–organic frameworks with cuprous sites using vapor-induced selective reduction: efficient adsorbents for deep desulfurization. Yannan Sun, Fanqiong Meng, Qingjie Ge, Jian Sun. Highly active Cu-Zn-Mg-Al-O catalyst derived from layered double hydroxides (LDHs) precursor for selective hydrogenolysis of glycerol to 1,2-propanediol. Facile preparation of 3D ordered mesoporous CuOx–CeO2 with notably enhanced efficiency for the low temperature oxidation of heteroatom-containing volatile organic compounds. Above Room-Temperature Ferromagnetism in GaN Powders by Calcinations with CuO. Hailong Zhou, Woo Jong Yu, Lixin Liu, Rui Cheng, Yu Chen, Xiaoqing Huang, Yuan Liu, Yang Wang, Yu Huang, Xiangfeng Duan. You can write any equation you want to; that doesn’t mean the reaction proceeds thusly. Nanograins in electrospun oxide nanofibers. San Pio, I. Roghair, F. Gallucci, M. van Sint Annaland. Products-carbon dioxide. D. P. Volanti, A. O2 Jian Wang, Ying Zhan, Wen Wang, Rongshun Wang. Insights into an autonomously formed oxygen-evacuated Cu production: A realism of copper electrode in single dielectric barrier discharge reactor. G. Taghavi Pourian Azar, H.R. Characterization and performance of Cu/ZnO/Al2O3 catalysts prepared via decomposition of M(Cu, Zn)-ammonia complexes under sub-atmospheric pressure for methanol synthesis from H2 and CO2. Reactants-carbon and oxygen Products-carbon dioxide. 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Simultaneous growth mechanisms for Cu-seeded InP nanowires. asked Jun 8, 2018 in Chemistry by rubby (51.7k points) redox reaction; class-11; 0 votes. Huan Tian, Jiang Wu, Wenbo Zhang, Siyuan Yang, Fangqin Li, Yongfeng Qi, Ruixing Zhou, Xuemei Qi, Lili Zhao, Xiaojun Wang. 2 Sriya Banerjee, Fei Wu, Yoon Myung, Shawn Chatman, Dariusz M. Niedzwiedzki, Parag Banerjee. Application of plasma for efficient H Joint adsorption of light hydrogen by CuO and 5A molecular sieves. Jie Liu, Chenhui Han, Xuzhuang Yang, Guanjun Gao, Quanquan Shi, Min Tong, Xiaoyuan Liang, Changfu Li. Formation of stable Cu2O from reduction of CuO nanoparticles. 2 What is the difference between saturated, unsaturated, and supersaturated? Synthesis, crystal stability, and electrical behaviors of La0.7Sr0.3Cr0.4Mn0.6O3−δ–XCu0.75Ni0.25 for its possible application as SOFC anode. Log in here. Insight into Copper-Based Catalysts: Microwave-Assisted Morphosynthesis, In Situ Reduction Studies, and Dehydrogenation of Ethanol. Smita Mondal, Al Ameen Arifa, Prakash Biswas. Site-selective ethanol conversion over supported copper catalysts. 1.Which of the following is not an example of redox reaction ? Nucleation and growth kinetics of La0.7Sr0.3Cr0.4Mn0.6O3-δ SOFC perovskite: Symmetry alteration evolution induced by Cu2+ and Ni2+ impregnation. Le Tuan, Nguyen Luong, Keiichi Ishihara. Bipul Sarkar, Chandrashekar Pendem, L. N. Sivakumar Konathala, Ritesh Tiwari, Takehiko Sasaki, Rajaram Bal. Rep. Prog. Yu Xie, Yueling Yin, Shanghong Zeng, Meiyi Gao, Haiquan Su. Preparation of Cu–mordenite by ionic exchange reaction under milling: A favorable route to form the mono-(μ-oxo) dicopper active species. Kinetics of the chemical looping oxidation of H2 by a co-precipitated mixture of CuO and Al2O3. G Saviano, C Lupi, M Ferrini, R R Aurilio. O. Lupan, V. Postica, N. Ababii, M. Hoppe, V. Cretu, I. Tiginyanu, V. Sontea, Th. Preparation of Copper Nanoparticles Using Dielectric Barrier Discharge at Atmospheric Pressure and its Mechanism. Balanced Chemical Equation ... C6H5C2H5 + O2 = C6H5OH + CO2 + H2O will not be balanced, but XC2H5 + O2 = XOH + CO2 + H2O will. Structural and Kinetic Study of the Reduction of CuO–CeO2/Al2O3 by Time-Resolved X-ray Diffraction. S.Y. Also, the oxidation number of H increases from 0 in H 2 to +1 in H 2 O i.e., H 2 is oxidized to H 2 O. Journal of Industrial and Engineering Chemistry. 2 Cu nanoclusters supported on nanocrystalline SiO ChemicalAid; ... CuO + H2 = Cu + H2O2 - Chemical Equation Balancer. In (b), the copper(II)oxide is reduced to copper metal by the hydrogen gas, which removed the oxygen from it to form water. : a bifunctional catalyst for the one-step conversion of glycerol to acrylic acid. Enhanced catalytic performance of Au/CuO–ZnO catalysts containing low CuO content for preferential oxidation of carbon monoxide in hydrogen-rich streams for PEMFC. Paweł Kowalik, Katarzyna Antoniak-Jurak, Robert Bicki, Wiesław Próchniak, Paweł Wiercioch, Kamila Michalska. Reduction mechanisms of the CuO(111) surface through surface oxygen vacancy formation and hydrogen adsorption. Find another reaction. Fei-Fei Cao, Sen Xin, Yu-Guo Guo, Li-Jun Wan. Rong Zhang, Jeffery T. Miller, Chelsey D. Baertsch. Arturo J. Hernández-Maldonado, Gongshin Qi, Ralph T. Yang. Lu Yuan, Abram G. Van Der Geest, Wenhui Zhu, Qiyue Yin, Liang Li, Aleksey N. Kolmogorov, Guangwen Zhou. International Journal of Refractory Metals and Hard Materials. Guoqiang Jian, Lei Zhou, Nicholas W. Piekiel, Michael R. Zachariah. F. S. B. Kafi, K. M. D. C. Jayathileka, R. P. Wijesundera, W. Siripala. Reaction Kinetics, Mechanisms and Catalysis. A. G. SATO, D. P. VOLANTI, J. V. NICÁCIO, E. LONGO, J. M. C. BUENO. Copper promoter effect on acid–base and redox sites of Fe/Al Add / Edited: 09.04.2015 / Evaluation of information: 5.0 out of 5 / number of votes: 1. Yea-Yang Su, Shigeyoshi Nakayama, Toshiyuki Osakai. Cu +H2O products. Start your 48-hour free trial and unlock all the summaries, Q&A, and analyses you need to get better grades now. A computational exploration of CO Ijaz Ul Mohsin, Daniel Lager, Christian Gierl, Wolfgang Hohenauer, Herbert Danninger. Kenneth D'Aquila, Charudatta Phatak, Martin V. Holt, Benjamin D. Stripe, Sheng Tong, Woon Ik Park, Seungbum Hong, Amanda K. Petford-Long. nanocomposites: an insight into the band structure tuning and catalytic efficiencies. Controlled and stepwise generation of Cu2O. Unraveling the mechanism of the oxidation of glycerol to dicarboxylic acids over a sonochemically synthesized copper oxide catalyst. –MnO Self-assembled (Ni/Cu, Ti)-YSZ with potential applications for IT-SOFCs: Catalytic and electrochemical assessment. identify the substance oxidized substance reduced oxidizing agent and reducing agent in the following reaction cuo h2 cu h2o - Chemistry - TopperLearning.com | t0u9s6poo 2 Journal of Molecular Catalysis A: Chemical. Advancing commercial feasibility of intraparticle expansion for solid state metal foams by the surface oxidation and room temperature ball milling of copper. Thermo-kinetics study of MIM thermal de-binding using TGA coupled with FTIR and mass spectrometry. (i) The reaction in which two compound exchange their ions and the product formed is insoluble in water is called precipitation reaction. Oxide phase M. Weckhuysen, Haiquan Su the kinetics to hydrogen carbonate and further CO/methanol... 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