AG
AMIT GHOSH
University of Oxford, University of Cambridge, Indian Institute of Technology Kanpur, University of Siegen
Research areas: Chemistry · Organic Chemistry · Supramolecular Chemistry and Complexes · Molecular Sensors and Ion Detection · Supramolecular Self-Assembly in Materials
0000-0001-6453-9206
Employment
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University of Oxford PostDoc2024 - Present
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University of Cambridge PostDoc2021 - 2024
- 2015 - 2021
Education
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IIT Kanpur MSc2013 - 2015
Projects & Funding
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Continuous Processes for Chemical Separation Based upon Coordination Cages Deutsche Forschungsgemeinschaft (DFG)
Publications (25)
- Time‐Resolved Chemical Logic in Dissipative Multicomponent Systems Save
- Light-Controlled Functions with Metal–Organic Capsules: From Guest Release to Catalysis, Separation, and Molecular Transport Save
- Chemical Fuel‐Driven Networked Catalytic Machinery Save
- Light-Driven Lithium Extraction from Mixtures of Alkali Cations Using an Azobipyridine Ligand Save
- Light‐Responsive Aldehyde‐Reduction Catalysis Through Catalyst Encapsulation Save
- Light‐Responsive Aldehyde‐Reduction Catalysis Through Catalyst Encapsulation Save
- Dynamic negative allosteric effect: regulation of catalysis via multicomponent rotor speed Save
- Light-Driven Purification of Progesterone from Steroid Mixtures Using a Photoresponsive Metal-Organic Capsule Save
- Mechanistic insights into on-surface reactions from isothermal temperature-programmed X-ray photoelectron spectroscopy Save
- Light-Powered Reversible Guest Release and Uptake from Zn4L4 Capsules Save
- Synchronizing Two Distinct Nano‐Circular Sliding Motions in Six‐Component Machinery for Double Catalysis Save
- Multicomponent Pseudorotaxane Quadrilateral as Dual-Way Logic AND Gate with Two Catalytic Outputs Save
- Fuel Acid Drives Base Catalysis and Supramolecular Cage-to-Device Transformation under Dissipative Conditions Save
- Catalytic machinery in motion: controlling catalysis via speed Save
- Concurrent base and silver(<scp>i</scp>) catalysis pulsed by fuel acid Save
- Off-Equilibrium Speed Control of a Multistage Molecular Rotor: 2-Fold Chemical Fueling by Acid or Silver(I) Save
- Cooperative Effects in Switchable Catalysis: Enhancing Double‐Click Reaction Yield of Symmetrical Rotaxanes Save
- Multitasking with Chemical Fuel: Dissipative Formation of a Pseudorotaxane Rotor from Five Distinct Components Save
- Exchange Speed of Four-Component Nanorotors Correlates with Hammett Substituent Constants Save
- Using multiple self-sorting for switching functions in discrete multicomponent systems Save