• Skip to primary navigation
  • Skip to main content
  • Skip to primary sidebar
MRC Laboratory of Molecular Biology

MRC Laboratory of Molecular Biology

One of the world's leading research institutes, our scientists are working to advance understanding of biological processes at the molecular level - providing the knowledge needed to solve key problems in human health.

  • Home
  • About LMB
  • Research
  • Research Groups
  • Students
  • Recruitment
  • Life at the LMB
  • Achievements
  • News & Events
Home > LMB News > Joe Greener appointed Group Leader in the LMB’s Structural Studies Division

Joe Greener appointed Group Leader in the LMB’s Structural Studies Division

Published on 1 September, 2023

Joe Greener holding an atomic model
Joe Greener

The LMB is delighted to announce Joe Greener as the newest Group Leader in our Structural Studies Division, where he will develop differentiable molecular simulation methods to improve biomolecular force fields.

Joe commented, “The explosion of biological data, improvements in computing and exciting machine learning advances mean that now is an exciting time to be developing methods for molecular simulation. I am looking forward to starting a research group at the LMB among such talented scientists.”

Force fields are a computational method used to aid molecular modelling by estimating the forces between atoms both within and between molecules. Using force fields, molecular dynamics has proven successful in providing biological insights through mechanistic interpretations of experimental data and suggestions for future studies. However, the force fields used to interpret how atoms interact rely on parameters skewed towards the notion that proteins are folded and, as such, fail when applied to disordered or aggregated proteins commonly found in disease. Development of new force fields with optimised parameters to study disordered proteins is a challenging and time-consuming process, particularly when trying to adapt multiple parameters at once.

Differentiable molecular simulation (DMS) tackles this by using a simulation to obtain gradients that indicate how each parameter affects the accuracy, the data from which can then be harnessed to improve the force field. Joe’s research has already illustrated the potential for DMS by developing a force field that can predict the folding of small proteins. With further research, he has shown the scope for an all-atom force field that works across a range of biomolecular systems. This approach holds significant appeal as a large number of parameters are able to be improved simultaneously. Joe plans to further apply his improved DMS approach to better understand aggregated proteins found within many neurodegenerative diseases.

After receiving an MSci and BA Hons in Natural Sciences (Chemistry) from Emmanuel College, University of Cambridge, Joe went on to an MSc in Bioinformatics and Theoretical Systems Biology and then a PhD in Structural Bioinformatics, both at Imperial College London. Following this, Joe undertook postdoctoral studies in the lab of David Jones at University College London and the Francis Crick Institute, before joining the LMB as a Senior Investigator Scientist in September 2021. For the past two years he has been developing methods to improve implicit solvent force fields.

Further references

Joe’s group page

Primary Sidebar

Search

  • Privacy & Cookies
  • Contact Directory
  • Freedom of Information
  • Site Map
Find Us
©2025 MRC Laboratory of Molecular Biology,
Francis Crick Avenue, Cambridge Biomedical Campus, Cambridge CB2 0QH, UK. 01223 267000

The MRC is part of UK Research and Innovation

Contact Us

This site uses cookies. The LMB may use cookies to analyse how you use our website. We use external analysis systems which may set additional cookies to perform their analysis. These cookies (and any others in use) are detailed in our Privacy and Cookies Policy and are integral to our website. You can delete or disable these cookies in your web browser if you wish, but then our site may not work as it is designed. Ok