Tobias Hanrath

Professor

Cornell University

United States

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About

Professor Tobias Hanrath is a faculty member at Cornell University, USA. His research primarily focuses on charge-transfer kinetics, electrochemical CO2 reduction, and the formation of nanostructured materials. Recent articles coalesce around the mechanisms of charge transfer in bioelectronic systems and the development of efficient electrochemical processes for selective product formation.

Articles (13)

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2025

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2024

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2023

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2023

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2022

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2022

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2021

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2021

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2021

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2021

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2021

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2020

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2020

Collaborators (3)

Buz Barstow

Assistant Professor

Cornell University

UNITED STATES

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Warren Zipfel

Associate Professor

Cornell University

UNITED STATES

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Tangi Aubert

University of Montpellier

FRANCE

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Tobias Hanrath

Research Interests

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About

Articles (13)

Spatially resolved charge-transfer kinetics at the quantum dot–microbe interface using fluorescence lifetime imaging microscopy

Pulsing the Applied Potential in Electrochemical CO2 Reduction Enhances the C2 Activity by Modulating the Dynamic Competitive Binding of CO and H

Mechanistic Insights into the Formation of CO and C2 Products in Electrochemical CO2 Reduction─The Role of Sequential Charge Transfer and Chemical Reactions

Emergence and inversion of chirality in hierarchical assemblies of CdS nanocrystal fibers

Bioelectronic Platform to Investigate Charge Transfer between Photoexcited Quantum Dots and Microbial Outer Membranes

Pulse Symmetry Impacts the C2 Product Selectivity in Pulsed Electrochemical CO2 Reduction

Fundamental Processes and Practical Considerations of Lead Chalcogenide Mesocrystals Formed via Self-Assembly and Directed Attachment of Nanocrystals at a Fluid Interface

Cu(I) Reducibility Controls Ethylene vs Ethanol Selectivity on (100)-Textured Copper during Pulsed CO2 Reduction

Effect of Electrolyte Composition and Concentration on Pulsed Potential Electrochemical CO2 Reduction

Processing–Structure–Performance Relationships of Microporous Metal–Organic Polymers for Size-Selective Separations

Mapping Defect Relaxation in Quantum Dot Solids upon In Situ Heating

Photoinitiated Transformation of Nanocrystal Superlattice Polymorphs Assembled at a Fluid Interface

Porous cage-derived nanomaterial inks for direct and internal three-dimensional printing

Collaborators (3)

Buz Barstow

Warren Zipfel

Tangi Aubert

Make your next move.

Tobias Hanrath

Research Interests

Explore related searches

Contact this professor

About

Articles (13)

Spatially resolved charge-transfer kinetics at the quantum dot–microbe interface using fluorescence lifetime imaging microscopy

Pulsing the Applied Potential in Electrochemical CO2 Reduction Enhances the C2 Activity by Modulating the Dynamic Competitive Binding of *CO and *H

Mechanistic Insights into the Formation of CO and C2 Products in Electrochemical CO2 Reduction─The Role of Sequential Charge Transfer and Chemical Reactions

Emergence and inversion of chirality in hierarchical assemblies of CdS nanocrystal fibers

Bioelectronic Platform to Investigate Charge Transfer between Photoexcited Quantum Dots and Microbial Outer Membranes

Pulse Symmetry Impacts the C2 Product Selectivity in Pulsed Electrochemical CO2 Reduction

Fundamental Processes and Practical Considerations of Lead Chalcogenide Mesocrystals Formed via Self-Assembly and Directed Attachment of Nanocrystals at a Fluid Interface

Cu(I) Reducibility Controls Ethylene vs Ethanol Selectivity on (100)-Textured Copper during Pulsed CO2 Reduction

Effect of Electrolyte Composition and Concentration on Pulsed Potential Electrochemical CO2 Reduction

Processing–Structure–Performance Relationships of Microporous Metal–Organic Polymers for Size-Selective Separations

Mapping Defect Relaxation in Quantum Dot Solids upon In Situ Heating

Photoinitiated Transformation of Nanocrystal Superlattice Polymorphs Assembled at a Fluid Interface

Porous cage-derived nanomaterial inks for direct and internal three-dimensional printing

Collaborators (3)

Buz Barstow

Warren Zipfel

Tangi Aubert

Make your next move.

Pulsing the Applied Potential in Electrochemical CO2 Reduction Enhances the C2 Activity by Modulating the Dynamic Competitive Binding of CO and H