Overview
In this role, you lead the development and application of advanced stem cell-derived models to inform translational decision-making in drug discovery. You will shape stem cell technologies and NAMs usage across therapeutic areas, collaborating with cross-functional teams and clients to deliver impactful science. Your work will advance human-relevant models and contribute to proposals, capabilities, and new business opportunities. This position offers leadership in a world-class research environment with access to cutting-edge platforms.
Pay / Benefits
- career development
- access to cutting-edge platforms
- diverse pharmaceutical and biotech programmes
- collaborative environment
- influence over strategy and capability development
- world-leading healthcare and drug discovery organisation
Responsibilities
- Lead stem cell–focused drug discovery projects from design to client delivery
- Develop, optimise and characterise human stem cell–derived models that are robust and relevant
- Drive adoption of New Approach Methodologies (NAMs) and advanced in vitro technologies
- Integrate stem cell models into client discovery programmes to improve translational relevance
- Apply expertise to solve complex biological challenges and influence project strategy
- Partner with clients, presenting data and providing scientific insight
- Mentor and develop stem cell capabilities across the organisation
- Contribute to scientific proposals, capability development and new business opportunities
Key requirements
- PhD in relevant discipline and significant industry experience
- Extensive hands-on experience with human stem cell–derived models (including iPSC-derived systems)
- Experience developing and optimising complex cellular assays in 2D and/or 3D
- Experience with disease modelling, phenotypic screening or translational biology
- Proven ability to lead scientific projects and influence direction
- Strong communication skills and client-facing confidence
- strong communication
- collaboration
- leadership and mentoring
- iPSC-derived cellular models
- Organoids and spheroid systems
- Co-culture models
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