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Integration of Systems Toxicology into Drug Discovery
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Abstract
Success in the pharmaceutical industry is plagued by high rates of late‐stage attrition because of unanticipated pre‐clinical and clinical toxicity. In order to improve success rates, it is necessary to consider potential on‐ and off‐target‐mediated toxicity at an earlier stage in product development to shift attrition upstream in the process. This will help to avoid resource‐intensive development activities, such as pre‐clinical toxicology and human clinical studies, on compounds that are ultimately destined to fail. Large‐scale gene expression profiling technologies, such as toxicogenomics, have the potential to diagnose and predict certain safety liabilities using
in vitro
and
in vivo
models. When used appropriately in the early stages of lead optimization and pre‐clinical drug testing, it has the potential to improve compound selection at an earlier stage of drug discovery and thus decrease the probability of late‐stage attrition. A more thorough understanding of a drug's mechanism of action and toxicity is also expected to improve human risk assessment and help define appropriate screening strategies to avoid toxicophores in subsequent iterations of drug discovery. This chapter will focus on the application of systems toxicology using toxicogenomics in drug discovery for the early safety assessment of small molecule therapeutics.
Title: Integration of Systems Toxicology into Drug Discovery
Description:
Abstract
Success in the pharmaceutical industry is plagued by high rates of late‐stage attrition because of unanticipated pre‐clinical and clinical toxicity.
In order to improve success rates, it is necessary to consider potential on‐ and off‐target‐mediated toxicity at an earlier stage in product development to shift attrition upstream in the process.
This will help to avoid resource‐intensive development activities, such as pre‐clinical toxicology and human clinical studies, on compounds that are ultimately destined to fail.
Large‐scale gene expression profiling technologies, such as toxicogenomics, have the potential to diagnose and predict certain safety liabilities using
in vitro
and
in vivo
models.
When used appropriately in the early stages of lead optimization and pre‐clinical drug testing, it has the potential to improve compound selection at an earlier stage of drug discovery and thus decrease the probability of late‐stage attrition.
A more thorough understanding of a drug's mechanism of action and toxicity is also expected to improve human risk assessment and help define appropriate screening strategies to avoid toxicophores in subsequent iterations of drug discovery.
This chapter will focus on the application of systems toxicology using toxicogenomics in drug discovery for the early safety assessment of small molecule therapeutics.
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