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Targeting disease, not disease targets: Innovative approaches in tackling neurodegenerative disorders
1NV reMYND, Gaston Geenslaan 1, B-3001 Leuven-Heverlee, Belgium. gerard.griffioen@remynd.be
Abstract:
Preclinical drug investigation entails identifying and optimizing drug candidates to yield effective therapeutics with an acceptable level of adverse side effects. Inevitably, this investigation phase is bound to using model systems that mimic crucial aspects of disease biology in order to assess drug efficacy. The quality or predictability of these disease models is therefore of utmost importance to the development of successful drugs. Models should also be cost-effective and, from a biological point of view, sufficiently simple to enable molecules that act specifically (ie, that modulate a single, pre-defined target) to be identified easily and to allow for HTS. To meet these demands, typical drug discovery approaches rely heavily on biochemical assays in which the activity of a pre-defined target is reconstituted artificially. However, such a rational reductionist approach may compromise the predictability of a model because targets are assessed in an artificial environment that is deprived of any relevant biological context. Moreover, given the pre-established limits on target space and mode of action in a model, efficient and innovative drug discovery programs may be hampered. This feature article considers alternative or complementary approaches that advocate the introduction of biological context early in the drug discovery process. A case study of how NV reMYND has implemented 'biology-driven' drug discovery is presented.
Insights
Drug discovery models must balance predictability and simplicity. Introducing biological context early improves preclinical drug investigation and identifies specific molecular targets more effectively.
Area of Science:
- Drug Discovery and Development
- Preclinical Research
- Pharmacology
Background:
- Preclinical drug investigation requires accurate disease models to assess therapeutic efficacy and safety.
- Current models often use artificial biochemical assays, potentially compromising biological relevance and limiting innovation.
- The predictability and cost-effectiveness of disease models are critical for successful drug development.
Purpose of the Study:
- To explore alternative or complementary approaches to traditional drug discovery methods.
- To advocate for the early integration of biological context into the drug discovery process.
- To present a case study of a 'biology-driven' drug discovery implementation.
Main Methods:
- Review of traditional reductionist approaches in preclinical drug investigation.
- Discussion of the limitations of artificial biochemical assays in mimicking disease biology.
- Presentation of a case study detailing a biology-driven drug discovery strategy.
Main Results:
- Reductionist approaches may compromise model predictability by removing biological context.
- Over-reliance on pre-defined targets can hinder innovative drug discovery programs.
- Integrating biological context early can enhance the identification of specific molecular modulators.
Conclusions:
- Introducing biological context early in drug discovery is crucial for developing effective therapeutics.
- Biology-driven approaches offer a complementary or alternative strategy to traditional methods.
- The presented case study demonstrates the practical application and potential benefits of this approach.
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