Allemann Laboratories

Chemical Biology at Cardiff University

News

Index for
"Quantum Tunnelling in Enzyme Catalyzed Reactions"

Preface: Nigel S. Scrutton & Rudolf K. Allemann


Introduction: Rudolph A. Marcus, California Institute of Technology

Beyond the Historical Perspective on Hydrogen and Electron Transfers



Chapter 1: Barry K. Carpenter, Cardiff University

The Transition State Theory Description of Enzyme Catalysis for Classically Activated Reactions



Chapter 2: Sam P. de Visser, University of Manchester

Introduction to Quantum Behaviour – A Primer



Chapter 3: Agnieszka Dybala-Defratyka, Piotr Paneth & Donald G. Truhlar, University of Minnesota

Quantum Catalysis in Enzymes



Chapter 4: Sharon Hammes-Schiffer, The Pennsylvania State University

Selected Theoretical Models and Computational Methods for Enzymatic Tunnelling



Chapter 5: Jiali Gao, Kin-Yiu Wong, Dan T. Major, Alessandro Cembran, Lingchun Song, Yen-lin Lin, Yao Fan & Shuhua Ma, University of Minnesota

Kinetic Isotope Effects from Hybrid Classical and Quantum Path Integral Computations



Chapter 6: Judith P. Klinman, University of California, Berkeley

Beyond Tunnelling Corrections: Full Tunnelling Models for Enzymatic C-H  Activation Reactions



Chapter 7: Arundhuti Sen & Amnon Kohen, The University of Iowa

Quantum Effects in Enzyme Kinetics

Chapter 8: E. Joel Loveridge & Rudolf K. Allemann, Cardiff University

Direct Methods for the Analysis of Quantum-Mechanical Tunnelling: Dihydrofolate Reductase



Chapter 9: Sam Hay, Michael J. Sutcliffe & Nigel S. Scrutton, University of Manchester

Probing Coupled Motions in Enzymatic Hydrogen Tunnelling Reactions: Beyond Temperature-Dependence Studies of Kinetic Isotope Effects



Chapter 10: Jaiyun Pang, Nigel S. Scrutton & Michael J. Sutcliffe, University of Manchester

Computational Simulations of Tunnelling Reactions in Enzymes



Chapter 11: Hanbin Liu & Arieh Warshel, University of Southern California, Los Angeles

Tunnelling does not Contribute Significantly to Enzyme Catalysis, but Studying Temperature Dependence of Isotope Effects is Useful



Chapter 12: David Leys, University of Manchester

The Use of X-ray Crystallography to Study Enzymic H-Tunnelling



Chapter 13: Richard L. Schowen, University of Kansas

The Strengths and Weaknesses of Model Reactions for the Assessment of Tunnelling in Enzymic Reactions



Chapter 14: Alexei A. Stuchebrukhov, University of California, Davis

Long-Distance Electron Tunnelling in Proteins



Chapter 15: Steven Y. Reece & Daniel G. Nocera, Massachusetts Institute of Technology

Proton-Coupled Electron Transfer: The Engine That Drives Radical Transport and Catalysis in Biology