Discover and optimize new lead compounds using quantitative predictions of binding-site chemistry
A 5-HT2C receptor antagonist is shown alongside the electrostatic field contours predicted by a Field-Based QSAR model for a series of similar compounds.
Field-Based QSAR: Discover and optimize new lead compounds using quantitative predictions of binding-site chemistry
Field-Based QSAR opens up new possibilities in ligand-based drug discovery projects. Supplied with an aligned training set of active and inactive compounds, Field-Based QSAR predicts drug activity on the basis of either force fields or Gaussian fields that describe ligand chemistry.
The Advantages of Field-Based QSAR
Quantitative structure-activity relationships (QSAR) have long been a favorite way for researchers to optimize lead compounds. However, traditional QSAR models typically incorporate only crude approximations of 3D structure.
Field-Based QSAR disposes of this limitation. Beginning with a set of aligned ligands that have known activities, Field-Based QSAR is capable of inferring how the ligand’s electrostatic, hydrophobic, and steric fields result in biological activity or inactivity.
Like all ligand-based approaches, Field-Based QSAR requires no knowledge of receptor structure. Ideal for both lead discovery and lead optimization, Field-Based QSAR is capable of quickly turning existing data sets into useful QSAR models, helping researchers to leapfrog around patent space, synthetic roadblocks, and ADME restrictions.
Download Software
Download the Schrödinger Suite now to try out the software.