Contact Dr Stuart Wagland

Background

Professor Wagland is an experienced waste management professional, applying his background in chemistry to understanding waste characteristics, developing novel analysis techniques and developing pathways for the thermochemical conversion of wastes into fuels and chemicals. He has a PhD in waste chemistry from Cranfield University and his other degrees include a BSc (Hons) in Chemistry and an MSc in Display Technology (physics, chemistry and electronic engineering).

Professor Wagland is a Chartered Chemist [CChem], a Fellow of the Royal Society of Chemistry [FRSC], and a Fellow of the Higher Education Association [FHEA]. Since commencing his academic career, Dr Wagland has also obtained a PgCert in Academic Practice (awarded in 2016).

Dr Wagland joined Cranfield in 2009 as a Research Fellow, progressing to academic posts including Academic Fellow, Lecturer, Senior Lecturer, Reader to his current position of Chair in Thermochemical Conversion.

Professor Wagland has expertise in the properties of solid waste materials, thermochemical processes and enhanced landfill mining. His expertise spans waste and fuel characterisation techniques, waste treatment technologies and energy recovery processes (including anaerobic digestion, incineration, gasification and pyrolysis). Professor Wagland's work on UK-wide assessment of waste contributed to substantial government investment in a demonstrator advanced thermal treatment facility aimed at accelerating the development of the UK capability in advanced thermal conversion.

Research opportunities

I am currently recruiting for doctoral research students in the areas of waste management, thermochemical conversion and enhanced landfill mining. Please get in contact if you are interested in pursuing a doctorate in this area.

Current activities

Professor Wagland's research focuses on advancing the scientific understanding and practical application of thermochemical conversion technologies for industrial decarbonisation and sustainable resource management.

He has extensive experience leading and collaborating on research programmes supported by UK Research and Innovation, Innovate UK, the Ofwat Innovation Fund, UK Water Industry Research, European funding programmes and industrial partners. His research places particular emphasis on connecting fundamental scientific understanding with practical engineering challenges, developing specialist experimental facilities and enabling collaboration between academia, industry and policymakers.

His research programme integrates fundamental laboratory investigations with reactor development, process optimisation and pilot-scale demonstration. A particular emphasis is placed on understanding the behaviour of complex and heterogeneous feedstocks, including municipal and industrial wastes, plastics, sewage sludge and wet organic residues.

Advanced thermochemical conversion and reaction diagnostics

A central objective of Professor Wagland's research is to establish a mechanistic understanding of thermochemical conversion processes, connecting feedstock chemistry and material heterogeneity with reaction kinetics, intermediate species and final product distributions.

His research combines advanced characterisation, experimental diagnostics and predictive approaches to investigate how chemical interactions and operating conditions influence conversion pathways. This work aims to develop the scientific foundations for designing more selective, efficient and controllable thermochemical processes.

Wet advanced thermochemical conversion

Professor Wagland is developing research capabilities in hydrothermal processing and supercritical water technologies, particularly for feedstocks that are challenging to treat through conventional thermal processes.

Current activities include the development of a novel continuous-feed supercritical water oxidation reactor, designed to investigate the treatment of wet organic wastes and the destruction of persistent contaminants.

Research also explores hydrothermal conversion pathways for producing sustainable fuels and chemical intermediates from heterogeneous organic resources.

Sustainable fuels and chemicals

Professor Wagland leads and contributes to research investigating the conversion of waste materials into valuable fuels and chemicals.

This includes the thermochemical valorisation of waste plastics, the conversion of organic residues into sustainable fuel precursors and the development of technologies to recover valuable chemical products from materials traditionally regarded as wastes.

A key objective is to understand and control the chemical reactions responsible for product formation, enabling improved selectivity, product quality and resource efficiency.

Sewage sludge valorisation and emerging contaminants

Professor Wagland is involved in major collaborative research programmes investigating advanced thermal conversion technologies for sewage sludge management.

These activities include the development and demonstration of sewage sludge pyrolysis technologies, alongside research examining the fate of microplastics and other emerging contaminants during advanced thermal treatment.

Working with water industry partners and research organisations, this research aims to provide the scientific and engineering evidence needed to evaluate alternative sludge management pathways and support future technology adoption.

Resource recovery and enhanced landfill mining

Professor Wagland has an established research record in the characterisation and recovery of valuable resources from legacy wastes, landfills and industrial residues. His work has included the development of advanced waste characterisation techniques, investigations into the recovery of metals and critical raw materials, and research into the conversion of excavated plastics into fuels and chemicals.

Through international collaborative projects, including SMART GROUND, NEW-MINE and REGENERATIS, he has contributed to research addressing the technical and environmental challenges associated with recovering resources from historic waste deposits.

Clients

  • Engineering and Physical Sciences Research Council
  • Innovate UK
  • UK Water Industry Research
  • Ofwat Innovation Fund
  • Horizon 2020

Publications

Articles In Journals

Conference Papers

Books