Suchergebnisse - "Fellay, N."

Iridium Catalyst Immobilized on Crosslinked Polyethyleneimine for Continuous Hydrogen Production Using Formic Acid.

Autoren: Sawahara, Keito Tanaka, Shinji Kodaira, Tetsuya et al.

Quelle: ChemSusChem; 1/8/2024, Vol. 17 Issue 1, p1-9, 9p

Schlagwörter: IRIDIUM catalysts, HYDROGEN production, FORMIC acid, POLYETHYLENEIMINE, CATALYTIC activity, CATALYST structure, HYDROGEN as fuel

Kinetic study of catalytic formic acid dehydrogenation by in situ UV-vis spectroscopy.

Autoren: Ono, Seo Li, Risheng Suzuki, Chieko et al.

Quelle: Sustainable Energy & Fuels; 2/7/2025, Vol. 9 Issue 3, p744-749, 6p

Cobalt Single‐Atom Catalysts with High Stability for Selective Dehydrogenation of Formic Acid.

Autoren: Li, Xiang Surkus, Annette‐Enrica Rabeah, Jabor et al.

Quelle: Angewandte Chemie; 9/7/2020, Vol. 132 Issue 37, p15983-15988, 6p

Schlagwörter: FORMIC acid, COBALT catalysts, DEHYDROGENATION, CATALYTIC dehydrogenation, ELECTRON paramagnetic resonance, X-ray photoelectron spectroscopy, ELECTRON paramagnetic resonance spectroscopy, TRANSMISSION electron microscopy

Strong Metal–Support Interaction for 2D Materials: Application in Noble Metal/TiB2 Heterointerfaces and their Enhanced Catalytic Performance for Formic Acid Dehydrogenation.

Autoren: Li, Renhong Liu, Zhiqi Trinh, Quang Thang et al.

Quelle: Advanced Materials; 8/12/2021, Vol. 33 Issue 32, p1-13, 13p

Development of an Electrochemical Process for the Simultaneous Treatment of Wastewater and the Conversion of Carbon Dioxide to Higher Value Products.

Autoren: Sabatino, Simona Galia, Alessandro Saracco, Guido et al.

Quelle: ChemElectroChem; Jan2017, Vol. 4 Issue 1, p150-159, 10p

Schlagwörter: WASTEWATER treatment, CARBON dioxide, ANODES, ELECTROCHEMISTRY, CURRENT density (Electromagnetism)

Manganese‐Mediated Formic Acid Dehydrogenation.

Autoren: Anderson, Nickolas H. Boncella, James Tondreau, Aaron M.

Quelle: Chemistry - A European Journal; 8/9/2019, Vol. 25 Issue 45, p10557-10560, 4p

Schlagwörter: FORMIC acid, DEHYDROGENATION, PRECIOUS metals

Ligand Effect on the Stability of Water‐Soluble Iridium Catalysts for High‐Pressure Hydrogen Gas Production by Dehydrogenation of Formic Acid.

Autoren: Iguchi, Masayuki Onishi, Naoya Himeda, Yuichiro et al.

Quelle: ChemPhysChem; May2019, Vol. 20 Issue 10, p1296-1300, 5p

Dehydrogenation of Formic Acid Catalyzed by Water‐Soluble Ruthenium Complexes: X‐ray Crystal Structure of a Diruthenium Complex.

Autoren: Patra, Soumyadip Awasthi, Mahendra K. Rai, Rohit K. et al.

Quelle: European Journal of Inorganic Chemistry; 2/21/2019, Vol. 2019 Issue 7, p1046-1053, 8p

Schlagwörter: RUTHENIUM compounds, DEHYDROGENATION, FORMIC acid, METAL complexes, CRYSTAL structure

In situ formic acid dehydrogenation observation using a UV-vis-diffuse-reflectance spectroscopy system.

Autoren: Li, Risheng Kodaira, Tetsuya Kawanami, Hajime

Quelle: Chemical Communications; 10/11/2022, Vol. 58 Issue 79, p11079-11082, 4p

Schlagwörter: FORMIC acid, DEHYDROGENATION, SPECTROMETRY, GAS-meters, COUNTERCURRENT chromatography

Geographical clusters of obesity in France related to complex longitudinal socio-behavioral profiles: findings from the GAZEL cohort.

Autoren: Joost S Fellay N Voruz P et al.

Quelle: Maturitas [Maturitas] 2025 Sep; Vol. 200, pp. 108665. Date of Electronic Publication: 2025 Jul 16.

Publikationsart: Journal Article

Info zur Zeitschrift: Publisher: Elsevier/North Holland Biomedical Press Country of Publication: Ireland NLM ID: 7807333 Publication Model: Print-Electronic Cited Medium: Internet ISSN: 1873-4111 (Electronic) Linking ISSN: 03785122 NLM ISO Abbreviation: Maturitas Subsets: MEDLINE

MeSH-Schlagworte: Obesity*/epidemiology, Humans ; France/epidemiology ; Female ; Male ; Middle Aged ; Adult ; Aged ; Body Mass Index ; Prevalence ; Longitudinal Studies ; Cohort Studies ; Alcohol Drinking ; Cluster Analysis ; Risk Factors ; Smoking ; Spatio-Temporal Analysis

Mechanistic Considerations on Homogeneously Catalyzed Formic Acid Dehydrogenation.

Autoren: Iglesias, Manuel Oro, Luis A.

Quelle: European Journal of Inorganic Chemistry; 6/7/2018, Vol. 2018 Issue 20/21, p2125-2138, 14p

Schlagwörter: FORMIC acid, DEHYDROGENATION kinetics, CARBON monoxide analysis, ENERGY consumption, METAL complexes

Formic Acid to Power towards Low‐Carbon Economy.

Autoren: Dutta, Indranil Chatterjee, Sudipta Cheng, Hongfei et al.

Quelle: Advanced Energy Materials; 4/21/2022, Vol. 12 Issue 15, p1-17, 17p

Schlagwörter: FUEL cells, FORMIC acid, RENEWABLE energy transition (Government policy), CATALYTIC dehydrogenation, PRODUCT life cycle assessment, POTENTIAL energy, ENERGY futures, TRANSITION economies

Electroreduction of Carbon Dioxide into Formate: A Comprehensive Review.

Autoren: Al‐Tamreh, Shaima A. Ibrahim, Mohamed H. El‐Naas, Muftah H. et al.

Quelle: ChemElectroChem; 9/1/2021, Vol. 8 Issue 17, p3207-3220, 14p

Schlagwörter: CARBON dioxide, CATALYSTS, ELECTROLYTIC reduction, FORMIC acid, ELECTRICAL energy, ENERGY consumption, FISCHER-Tropsch process

Formic Acid as a Potential On‐Board Hydrogen Storage Method: Development of Homogeneous Noble Metal Catalysts for Dehydrogenation Reactions.

Autoren: Guo, Jian Yin, Chengkai K. Zhong, Dulin L. et al.

Quelle: ChemSusChem; 7/6/2021, Vol. 14 Issue 13, p2655-2681, 27p

Schlagwörter: METAL catalysts, FORMIC acid, HYDROGEN storage, PRECIOUS metals, HYDROGEN as fuel, CATALYSTS, FUEL cells

Formate‐Bicarbonate Cycle as a Vehicle for Hydrogen and Energy Storage.

Autoren: Bahuguna, Ashish Sasson, Yoel

Quelle: ChemSusChem; 3/5/2021, Vol. 14 Issue 5, p1258-1283, 26p

Schlagwörter: HYDROGEN as fuel, HYDROGEN storage, ENERGY storage, CARBON offsetting, ALKALI metals, HYDRIDES, FUEL cell vehicles

Formic acid as a hydrogen storage material – development of homogeneous catalysts for selective hydrogen release.

Autoren: Mellmann, Dörthe Sponholz, Peter Junge, Henrik et al.

Quelle: Chemical Society Reviews; 7/21/2016, Vol. 45 Issue 14, p3954-3988, 35p

Schlagwörter: FORMIC acid, HYDROGEN storage, CARBON dioxide, HYDROGENATION, METAL catalysts, FOSSIL fuels

An Update on Formic Acid Dehydrogenation by Homogeneous Catalysis.

Autoren: Guan, Chao Pan, Yupeng Zhang, Tonghuan et al.

Quelle: Chemistry - An Asian Journal; Apr2020, Vol. 15 Issue 7, p937-946, 10p

Schlagwörter: FORMIC acid, HOMOGENEOUS catalysis, HYDROGEN as fuel, DEHYDROGENATION, FUEL cells, DECARBOXYLATION, CATALYTIC dehydrogenation

Pd²⁺‐Initiated Formic Acid Decomposition: Plausible Pathways for C‐H Activation of Formate.

Autoren: Lee, Won Jong Hwang, Yeon Jin Kim, Joohoon et al.

Quelle: ChemPhysChem; May2019, Vol. 20 Issue 10, p1382-1391, 10p

Highly Efficient Base‐Free Dehydrogenation of Formic Acid at Low Temperature.

Autoren: Prichatz, Christoph Trincado, Monica Tan, Lilin et al.

Quelle: ChemSusChem; 9/21/2018, Vol. 11 Issue 18, p3092-3095, 4p

Schlagwörter: FORMIC acid, LOW temperature (Weather), RUTHENIUM compounds, CHEMICAL reactions, CARBOXYLIC acids

Homogeneous Catalytic Formic Acid Dehydrogenation in Aqueous Solution using Ruthenium Arene Phosphine Catalysts.

Autoren: Fink, Cornel Chen, Lu Laurenczy, Gábor

Quelle: Zeitschrift für Anorganische und Allgemeine Chemie; 8/2/2018, Vol. 644 Issue 14, p740-744, 5p

Schlagwörter: HOMOGENEOUS catalysis, FORMIC acid, DEHYDROGENATION, AQUEOUS solutions, RUTHENIUM compounds, PHOSPHINES