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Industries & Expertise

Bioengineering and Biotechnology

Imperial’s interdisciplinary expertise in bioengineering and biotechnology leads the UK field and spans the life sciences, engineering and medicine disciplines. Many of our experts work together as part of the Industrial Biotechnology Hub and Agri-Net which are dedicated to developing innovative solutions for industry and government agencies.

Whether you need help with testing biological samples, developing novel biomaterials or determining the motion analysis for a new product, we can find the right people to help you solve a problem flexibly and responsively. 


Biomaterials - wound and tissue repair 

With an ageing global population and increasing levels of obesity and diabetes - new, disruptive wound care technologies are ever growing in demand. Our experts in the Almquist Lab employ insights from biology, nanotechnology and material science to create innovative wound healing and tissue repair solutions. 
They are developing smart bandages and dynamic biomaterials for controlled delivery of therapeutics to wounds such as diabetic ulcers or scars from burns and surgical interventions (e.g. peritoneal adhesions). Plus, 're-wiring' and improving the healing process through the manipulation of signalling networks - for ulcers, to prevent hypertrophic scarring or to modulate healing disorders.
Further research and expertise also includes:
  • Neural interfaces (imaging, interaction between metal/silicon and cells)
  • Nanoparticles in cancer therapy
  • Epigenetic dysregulation of cell signalling
  • MicroRNA therapies
  • Tissue engineering
  • Dynamically manipulating the behaviour of cells and tissues

More information on the research from the team can be found on the Almquist Lab site.

Experts include:

  • Dr Ben Almquist - expertise combines materials science, nanotechnology and biology to develop methods for dynamically manipulating the behaviour of cells and tissues.

Microbial Strain Engineering, Design and Improvement.

With increased environmental and economic constraints on industries, the bioproduction of molecules is becoming a sustainable alternative to traditional methods. To scale it up to industrial production, we still need significant improvements in the methods, using genetic engineering and metabolic engineering.

Engineered micro-organisms have a wide range of applications in

  • Oil and Gas - e.g. production of biodiesel, biokerosene, hydrogen, and electricity from renewable sources
  • Pharmaceuticals - e.g. production of active compounds, biosensors, microbiome engineering
  • Chemicals - e.g. production of bulk chemicals or high value compounds
  • Engineering - e.g. production of novel materials and biological circuits
  • Defence

Dr Rodrigo Ledesma-Amaro's group at Imperial have a vast knowledge of microbial metabolism, and its regulation, in organisms ranging from yeast and fungi to bacteria. Through engineering-based improvements - such as increasing resistance to inhibitors, enabling the use of low-cost substrates and maximising the production of a desired compound - they can 'tailor' micro-organisms to perform desired tasks in a cost-efficient manner - and guide you on the downstream process.

The group's expertise includes:


  • Development of synthetic biology, metabolic engineering and molecular biology tools.
  • Rational metabolic engineering for bioproduction.
  • Metabolic modelling as a tool to identify engineering targets.
  • Decreasing bioproduction cost by strain improvement at different levels.
  • Reliable chassis strains generation.
  • Selecting the best host for each product and process.
  • High-throughput strain improvement techniques. 


Experts include:

  • Dr Rodrigo Ledesma-Amaro - leads a research group at the interface of synthetic biology and metabolic engineering. His expertise includes microbial biotechnology and communities, applications in industrial biotechnology and biomedicine.


Further expertise areas at Imperial include:



Plant sciences, microbial physiology, systems biology and mathematical modelling, catalysis/synthesis, chemical biology, flow chemistry, sustainable manufacturing processes/construction, process design, biomechanics amd mechanobiology, cell and molecular bioengineering, human and biological robotics and neural engineering.


Synthetic biology, biocatalysis and metabolic engineering, bioinformatics, metabolomics, proteomics, glycomics, nanotechnology, imaging, image analysis and information systems, artificial bioactive material and implants plus neurotechnology.

Applied Biosciences

Bioenergy/biorenewables, bioremediation and waste treatment, bioprocessing and bioseparations, biologics, implants, regenerative medicine and tissue engineering, agri-food, brain-related illnesses and blast injury.