Chemical engineering equipment

Chemical Engineering

Welcome to the Chemical Engineering Cluster within the Engineering Department. We aim to deliver industry solutions through application of the latest in process design and materials innovation. Please take a moment to explore our capabilities and track record. We look forward to working with you.

Contact our Cluster Lead, Professor Alastair Martin

Our Capability

We are a multidisciplinary team with capabilities spanning an extensive range of Chemical, Material and Process Engineering domains and expertise that blends applied, experimental and life science approaches. We work across the fields of Reaction Engineering, Catalysis and Electrocatalysis, Renewable Energy Generation and Gasification, Fuel Cells and Energy Storage, Biomaterials, Downstream Processing, Microbial Transformation and Waste Valorisation.

Several members of our team began their careers in industry and we are able to draw upon decades of collective experience in Oil and Gas, Utilities, Chemicals and Nuclear disciplines when addressing modern day challenges and development projects.

We operate across a multitude of sectors from Energy generation to Biopharmaceutical and at all scales from theoretical design and laboratory bench experimentation, through test rig development and scale up, to real world industrial solutions in process control, intensification and optimisation.

Our Offer

Our Facilities

  • Continuous reactors (bacterial reactions)
  • Packed bed reactors
  • Process control, flow and temperature measurement equipment
  • Batch and continuous distillation columns
  • Pilot scale absorption column
  • Pilot scale extraction column
  • Surface analysis equipment – TGA, SEM, EDX, BET
  • Chemisorption
  • TPR and TPO (temperature programmed reduction/oxidation)
  • TEM
  • Gas Chromatography: incipient method, solgel method
  • HPLC
  • UV Spectrometry Equipment
  • Tunable Near IR laser
  • Near IR camera

Key People and Contacts

“Recent trends in process design development within the chemicals sector show an increased awareness of the need for remarkable change in common practices if we are to achieve sustainable goals linked to tightening legislation and decarbonisation. In Engineering at Lancaster University, we have competences in many aspects of process design and methodologies that consider resource use efficiencies in equipment size, energy consumption and waste generation. We use both fundamental and practical concepts to shape experimental and modelling methodologies. Examples include heat integration systems applied to wood chip dryers and spirit distillers, bead coating for integrated mixing, efficient anaerobic digesters, integrated separation of value added chemicals from food wastes and generation of syngas from biowastes using unconventional heating techniques.”

Dr Farid Aiouache, Cluster Co-ordinator

If you wish to know how we can contribute to your business or products, get in touch with Farid

Meet the Team

With the creation of this Chemical Engineering Cluster Lancaster University is championing the development of critical capabilities and competencies required to support industries across all sectors to overcome the challenges of today and gain insights into the future. Victrex plc has been able to benefit first hand from this expertise and I strongly support Lancaster University as a key strategic industrial partner

A quote from John Bowskill, Programme Director, Victrex

Key Competencies

  • Process design, modelling, control and optimisation systems
  • Catalyst design, modelling and characterisation
  • Renewable/Bioenergy generation, fuel cells and energy storage
  • Anaerobic and acidogenic digestion
  • Wastewater treatment and sludge processing technology
  • Waste valorisation, downstream processing and microbial transformation
  • Reactive distillation, membrane separation and compression rheology
  • Biochemical/Biological synthesis of platform chemicals

Wood chip drying project

In this project we developed heat transfer models that allowed the project partner, Bowland Bioenergy Ltd, to design a year round, four-season woodchip drying operation by predicting and utilising moisture content kinetics. Two types of drying, based on laboratory infrared (halogen) and industrial convective scales were assessed following the British standards recommendations. Laboratory data and fundamentals of heat and mass transfers allowed the creation of successful models that are now being used by Bowland Bioenergy to manage the operating time of drying throughout the year.

Related ERDF programmes

We can also provide access to funded support through our European Regional Development Fund projects and a range of other funding sources to support collaboration. Contact our Partnerships and Business Engagement Manager Mike Entwistle find out more.

Further engagement we can offer