| Closing the carbon cycle to maximise climate change mitigation: power-to-methanol vs. power-to-direct air capture HA Daggash, CF Patzschke, CF Heuberger, L Zhu, K Hellgardt, ... Sustainable Energy & Fuels 2 (6), 1153-1169, 2018 | 79 | 2018 |
| Methane pyrolysis in monovalent alkali halide salts: Kinetics and pyrolytic carbon properties B Parkinson, CF Patzschke, D Nikolis, S Raman, DC Dankworth, ... International Journal of Hydrogen Energy 46 (9), 6225-6238, 2021 | 61 | 2021 |
| Co-Mn catalysts for H2 production via methane pyrolysis in molten salts CF Patzschke, B Parkinson, JJ Willis, P Nandi, AM Love, S Raman, ... Chemical Engineering Journal 414, 128730, 2021 | 51 | 2021 |
| Molten salt bubble columns for low-carbon hydrogen from CH4 pyrolysis: mass transfer and carbon formation mechanisms B Parkinson, CF Patzschke, D Nikolis, S Raman, K Hellgardt Chemical Engineering Journal 417, 127407, 2021 | 38 | 2021 |
| Precursor engineering of hydrotalcite-derived redox sorbents for reversible and stable thermochemical oxygen storage M High, CF Patzschke, L Zheng, D Zeng, O Gavalda-Diaz, N Ding, ... Nature Communications 13 (5109), 2022 | 20 | 2022 |
| Co-precipitated Cu-Mn mixed metal oxides as oxygen carriers for chemical looping processes CF Patzschke, ME Boot-Handford, Q Song, PS Fennell Chemical Engineering Journal 407, 127093, 2021 | 18 | 2021 |
| Density and viscosity of partially carbonated aqueous solutions containing a tertiary alkanolamine and piperazine at temperatures between 298.15 and 353.15 K CF Patzschke, J Zhang, PS Fennell, JPM Trusler Journal of Chemical & Engineering Data 62 (7), 2075-2083, 2017 | 14 | 2017 |
| Hydrotalcite-Derived Copper-Based Oxygen Carrier Materials for Efficient Chemical-Looping Combustion of Solid Fuels with CO2 Capture M High, CF Patzschke, L Zheng, D Zeng, R Xiao, PS Fennell, Q Song Energy & Fuels 36 (18), 11062-11076, 2022 | 8 | 2022 |
| Process integration of chemical looping water splitting with a sintering plant for iron making K Katayama, H Bahzad, M Boot-Handford, CF Patzschke, PS Fennell Industrial & Engineering Chemistry Research 59 (15), 7021-7032, 2020 | 7 | 2020 |
| Simulation of a 100-MW solar-powered thermo-chemical air separation system combined with an oxy-fuel power plant for bio-energy with carbon capture and storage (BECCS) CF Patzschke, H Bahzad, ME Boot-Handford, PS Fennell Mitigation and adaptation strategies for global change 25, 539-557, 2020 | 6 | 2020 |
| Closing the carbon cycle to maximise climate change mitigation: power-to-methanol vs. power-to-direct air capture. Sustain Energy Fuels 2 (6): 1153–1169 HA Daggash, CF Patzschke, CF Heuberger, L Zhu, K Hellgardt, ... | 5 | 2018 |
| Copper manganese oxides as oxygen carriers for chemical looping air separation for near-zero emission power generation CF Patzschke Imperial College London, 2019 | 2 | 2019 |
| Turquoise Hydrogen: Methane Pyrolysis as a Low-CO2 Source of H2 CF Patzschke, B Parkinson, S Raman, DC Dankworth, K Hellgardt | 1 | 2023 |
| Maximizing the Mitigation Potential of Curtailed Wind: A Comparison Between Carbon Capture and Utilization, and Direct Air Capture Processes for the UK HA Daggash, C Patzschke, C Heuberger, L Zhu, N Mac Dowell | | 2017 |
| Power-to-transport: Using curtailed wind to run CCU processes H A Daggash, C Patzschke, C Heuberger, L Zhu, N Mac Dowell | | 2017 |
| Maximising the mitigation potential of curtailed wind in the UK: A comparison between Carbon Dioxide Capture and Utilisation, and Direct Air Capture processes HA Daggash, C Patzschke, C Heuberger, L Zhu, N Mac Dowell | | |
| MAXIMISING THE MITIGATION POTENTIAL OF CURTAILED WIND: A COMPARISON BETWEEN CARBON CAPTURE AND UTILISATION, AND DIRECT AIR CAPTURE PROCESSES FOR THE UK C Patzschke | | |
