John M. Herbert
Physics and Astronomy · The Ohio State University
Publications
382
Citations
19,527
Est. group size
~14
Recurring co-author estimate
Active years
43
Publishing since 1984
John M. Herbert works in computational and theoretical chemistry, developing and applying quantum chemistry methods to study molecular electronic structure, spectroscopy, and interactions between molecules such as proteins and ligands. His research involves creating new computational tools (e.g., fragment-based methods, density functional theory approaches) and using them to model chemical systems ranging from small molecules to large biomolecular complexes. Prospective students would likely work on method development in computational chemistry using tools like Q-Chem, alongside applications in spectroscopy and molecular interaction modeling.
Publication output has grown substantially over the past decade, rising from roughly 5-14 papers per year in 2017-2020 to a sustained higher rate of 20-31 papers per year from 2021 onward.
Generated by claude-sonnet-5 from public bibliographic data · Jul 20, 2026
- Energy-Screened Many-Body Expansion for Protein–Ligand Interactions: Examining Convergence for Metalloenzymes through Seven-Body Interactions
ChemRxiv · 2026
- Benchmark assessment of collinear, mixed-reference, and spin-adapted variants of spin-flip time-dependent density functional theory, for closed-and open-shell molecules
ChemRxiv · 2026
- Photocatalytic hydrogen driven (Pd-C\UV\H2) advanced reduction process (ARP) for dechlorination and degradation of chlorotoluron in aqueous environment
Journal of Environmental Management · 2026
- Q-Chem/CP2K software interface for projection-based, pseudoperiodic wavefunction-in-DFT embedding
ChemRxiv · 2026
- Convergent Protocols for Computing Protein–Ligand Interaction Energies Using Fragment-Based Quantum Chemistry
Journal of Chemical Theory and Computation · 2025
- Simplified Tuning of Long-Range Corrected Time-Dependent Density Functional Theory
The Journal of Physical Chemistry Letters · 2025
- Quick-and-Easy Validation of Protein–Ligand Binding Models Using Fragment-Based Semiempirical Quantum Chemistry
Journal of Chemical Information and Modeling · 2025
- Untangling Sources of Error in the Density-Functional Many-Body Expansion
The Journal of Physical Chemistry Letters · 2025
- Extended Configuration-Interaction Singles Method with Core/Valence Separation (XCIS-CVS): Core-Level Spectra of Open-Shell Molecules
Journal of Chemical Theory and Computation · 2025
- Computing L- and M-edge spectra using the DFT/CIS method with spin–orbit coupling
Physical Chemistry Chemical Physics · 2025
- <scp>Fragme∩t</scp> : An Open‐Source Framework for Multiscale Quantum Chemistry Based on Fragmentation
Wiley Interdisciplinary Reviews Computational Molecular Science · 2025
- Correction to “Predicting and Understanding Noncovalent Interactions Using Novel Forms of Symmetry-Adapted Perturbation Theory”
Accounts of Chemical Research · 2025
- Computing L- and M-edge spectra using the DFT/CIS method with spin-orbit coupling
ChemRxiv · 2025
- Fragment: An Open-Source Framework for Multiscale Quantum Chemistry Based on Fragmentation
ChemRxiv · 2025
- Simplified tuning of long-range corrected time-dependent density functional theory
ChemRxiv · 2025
- ChemRxiv×72
- The Journal of Chemical Physics×18
- Journal of Chemical Theory and Computation×17
- The Journal of Physical Chemistry Letters×12
- Physical Chemistry Chemical Physics×7
- Lyudmila V. Slipchenko
Physics and Astronomy · Purdue University West Lafayette
- Biswajit Biswas
Physics and Astronomy · The Ohio State University
- Sagarmoy Mandal
Physics and Astronomy · Purdue University West Lafayette
- Saswata Dasgupta
Physics and Astronomy · The Ohio State University
- Suranjan K. Paul
Physics and Astronomy · The Ohio State University
This profile was generated automatically from public scholarly data (OpenAlex). Group size and activity levels are estimates derived from co-authorship patterns.
Last updated Jul 19, 2026.
Claim or correct this profile