
The RGDscience team consults for life-science clients and academia in drug discovery and medicinal chemistry. With over 100 years big pharma and biotech experience, we they have successfully advanced projects for clients globally across a wide range of therapeutic targets and modalities.
Having delivered multiple candidates to the clinic and been cited as inventors of over 100 patents and over 200 high impact papers, we are well-placed to advise on all aspects of drug discovery and medicinal chemistry. In particular we have:
Introducing our scientific expert team
Richard Hatley MChem, DPhil, MRSC, CChem
Diane Coe B.Sc (Hons), PhD, FRSC
Andy Mason B.Sc (Hons)
Simon Macdonald B.Sc (Hons), MSc, PhD
For more information, visit www.rgdscience.com.
Our real-life hard-won experience in Hit ID strategies includes selecting the most suitable technique for identifying hit compounds for modulating the target. For example, a DEL library screen was recommended and run to obtain hit start points. For a different target, a virtual screen of billions of compounds was carried out to identify hits. These have been invaluable to numerous clients by advancing their projects. We provided technical support for development of the screening cascade to streamline conversion of hits into leads and to guide the triage process for identifying drug-like hits with confirmed activity.
The client required rapid due diligence on a potential biotech purchase. After an on-site visit and interviews with the biotech directors and lead scientists, we prepared a detailed report alongside a presentation that informed a high-value decision.
Our experience as founders of three companies, successfully raising venture capital investment and recruiting employees, means we have been well placed to both mentor and advise on building new start-ups. Our knowledge of the infrastructure needed has meant clients are able to focus predominantly on the science and raising funds.
We successfully collaborated with a client on the design of ligands for a protein target applying structure-based-design approaches, predicting the binding and estimating the relative potencies of novel ligands. As a result, a huge number compounds were triaged. Less than twenty were actually synthesised which provided multiple active drug-like leads for the project.
We successfully delivered orally bioavailable CNS penetrant molecules for the client based on a systematic analysis of the data in a resource efficient manner for a bespoke chemotype. From this, we developed design rules which enabled robust predictions of compound properties for CNS penetration which correlated with in vivo data. This significantly advanced the program saving time and resources by reducing the number of molecules that had to made.