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 Prediction of activity,  toxicity or the ADME properties of a molecule are one of the most important  factors in taking a ‘go – no go’ decision on new molecules. Computational  techniques are an integral part of such predictions today. Accurate predictions  of the activity potential, toxicity potential and the ADME characteristics are  required to determine if further investment in developing a molecule is  justified or not.
 
 VLife’s Activity/ Tox/ ADME  Prediction services help to comprehensively profile a new molecule with  reference to these characteristics. Our scientific team utilizes a variety of  techniques including docking, QSAR, chemoinformatics etc. to develop such a  profile for a molecule of interest. Although each of these activities can be  performed in isolation, a holistic view of the three  leads to improved decisions  as, for example, evaluation of activity without ADME characterization has  limited benefits. Similarly only ascertaining that a compound has promising  activity and ADME characteristics would be inadequate knowledge about the  compound until its toxicity potential is also determined.
 
 VLife’s scientific team  derives its inputs from a variety of technological tools including specialized  programs available for predicting these profiles. Our predictions are delivered  by taking a consensus approach depending upon results from different methods. Our  activity predictions are arrived at using either a ligand based or a target  based approach. Our toxicity prediction services provide alerts for the  potential of a molecule to be mutagenic, carcinogenic, eye and/ or skin  irritant or a corrosive substance. Depending on the data available the toxicity  prediction services could also be based on a QSAR analysis. Our ADME  characterization services provide an analysis of the drug like  characteristics of the molecule. These could include predictions for human  intestinal absorption, aqueous solubility, blood brain barrier permeability and  plasma protein binding, all derived based on either a unique extended Lipinski screen or a  QSAR model.
 
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