Chemical Materials Design

The Chemical Materials Design Research Area pioneers methods in computer aided design, machine learning, and robotics for materials design and characterisation, accelerating innovation in the discovery and development of novel materials with minimal environmental impact.

Through this Research Area, Royce is supporting the development of faster and more sustainable synthetic methods to chemical, catalytic and biological materials.

Vision

The Chemical Materials Design (CMD) Research Area bridges two transformative opportunities—sustainability and automation/robotics—to advance materials chemistry and address the challenges of future materials innovation.

  • Driving Sustainability: Supporting the design, evaluation, and circularity testing of materials to foster innovations and improvements in sustainability.
  • Accelerating Innovation: Driving the wider utilisation of robotics and automation to advance the discovery and development of materials with desired properties and minimal environmental impact.
  • Enabling Faster, Greener Synthesis: Delivering efficient and sustainable synthetic methods for chemical, catalytic, and biological materials.

Introduction and Scope

To facilitate and support the accelerated design of new materials for a competitive, zero-carbon, and agile UK industry we will:

  • Develop Materials 4.0 methods for rapid materials design, make and measure
  • Contribute to UK policy-making for Industry 4.0 for producing materials at scale
  • Establish the Sustainable Materials Innovation Hub (SMI Hub) to assist companies in all stages of the
    sustainable plastics agenda
  • Develop the next generation of materials exploiting synthetic biology
  • Deliver materials for “More than Moore” devices

Current and Future Research

CMD is committed to supporting the UK’s transition to a zero-carbon, agile, and globally competitive industry by prioritising:

  • AI-Driven Sustainability: Using robotics and AI to revolutionise sustainable material discovery and innovation.
  • Advancing the Circular Economy: Leading polymer research to promote circularity and minimise waste.
  • Synthetic Biology: Designing next-generation materials through cutting-edge biomanufacturing techniques.
  • Interdisciplinary Collaboration: Connecting expertise across sustainability, automation, and materials research to unlock synergies.
  • Tackling Grand Challenges: Leveraging CMD’s integration with other Royce themes—such as electrochemical systems, biomaterials, modelling and characterisation—to address the UK’s most pressing materials challenges.

Links

The CMD area capabilities focus on rapid discovery and testing of small molecules, inorganic materials, polymers, and biomaterials at TRLs 1-2, with strong links to the High Value Manufacturing (HMVC) and Centre for Process Innovation (CPI), Catapults, Knowledge Centre for Materials Chemistry (KCMC) and Organic Materials Innovation Centre (OMIC) to translate our knowledge to larger scales as well as to other national initiatives such as the Circular Economy Centres.

Technology Platforms

Royce Technology Platforms are groupings of cutting-edge facilities and expertise. Each Platform has a Technology Platform Lead responsible for developing and enhancing the facilities and supporting related research activities which utilise Royce Equipment

Automated Formulation of Materials

This platform of robotic equipment is suitable for automated formulation, and working at a range of scales suitable for materials discovery and product development.

Polymer Characterisation, Processing and Synthesis

The Royce Technology Platform forPolymer Characterisation, Processing and Synthesis contains a unique combination of state-of-the-art equipment and capabilities available to assess material properties, performance, and durability.

Automated Engineering of Biology for Materials Discovery

This platform hosts a suite of instrumentation for the rapid discovery and engineering of biological systems for the manufacture of advanced Materials from Biology and bio-based materials for clean growth.

Chemical Materials Design Team

Chemical Materials Design Equipment

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