Biomass
Ongoing Project

Converting waste into energy

Our researchers are developing efficient and resilient biomass waste-to-energy solutions through the B3 Challenge Group

Project summary

The Challenge

To address industrial challenges relating to biomass and waste feedstock usage and waste-to-energy production solutions.

The Approach

The team is developing novel processes with which to exploit underestimated waste streams for energy generation.

The Outcome

We are contributing to sustainable global biomass and waste-to-energy sector, generating low carbon energy and accelerating a net zero future for all.

Lead academics

Funded by

Project partners

The Challenge

The B3 Challenge Group focusses on fundamental and applied industry-driven research for upgrading waste and waste-to-energy low carbon solutions. The group also develops novel processes to integrate RES with conventional energy production practices, for a sustainable resource usage and upgrading the waste streams to useful energy and fuels.

The group specialises in:

  • green chemistry heterogeneous catalysis ,
  • advanced thermal (pyrolysis)/ and thermochemical (carbonisation, gasification and clean combustion) processes,
  • biochemical (anaerobic digestion, wastewater treatment) as well as,
  • net carbon processes conceptual design, simulation, Life Cycle Analyses (LCA) and economic assessment studies (TEA) of energy systems and
  • Carbon Capture Utilization and Storage (CCUS) solutions, shifting from fossil fuels, and using our waste of varying nature as well as their blends with fossil fuels and integrated design of thermochemical and biochemical reactors for waste to energy, H2 and activated carbon production and harmful emissions control.
Dr Vicky Skoulou - Developing novel biomass waste-to-energy solutions

The full research team

The Approach

Aims

  • To address industrial challenges relating to biomass and waste feedstock usage and waste-to-energy production solutions.
  • To work closely with industry and multidisciplinary international academia to generate ground-breaking research driven solutions with direct application to industrial processes for the benefit of the society.
  • To influence the development of waste to energy management strategic plans and guidelines.
  • To contribute to the global move towards a zero-carbon future via the clean growth elements of the UK’s Industrial Strategy, and UN Sustainable Development Goals.
  • To develop broad collaborative links between national and international academia, industry, NGOs and government, to promote low carbon, circular economy solutions to the energy crisis, and to mitigate the energy poverty in rural and low-income communities.
  • To train the future RES energy related engineers in order to provide resilient waste to energy related solutions for the benefit of the global communities

They achieve this by fundamental and applied research and development of novel, efficient and low to net carbon processes for the exploitation of underestimated waste streams for energy generation, chemicals and value added materials, upgrading them by novel pre-treatments and thermochemical/ biochemical processing (mainly carbonization, pyrolysis, gasification and clean combustion as well as anaerobic digestion) for sustainable energy, chemicals and materials production in residential and industrial sectors.

The B&W Challenge Group draws together substantial applied Chemistry, Chemical Engineering, Civil Engineering and Mechanical Engineering expertise from the University of Hull and an inter- and multi-disciplinary pool of partners from industry and national and international academia such as KTH, QMU, ICL, AUTh, UCU, UCY, HMU, EUC, Petronas, Aston, UoS and research institutes (CPERI/CERTH, MAICH, BDC). The group develops industrial problem-solving solutions for the benefit of the society to the challenges facing the waste to energy and problematic waste upgrading sectors for industrial, transportation and residential sector.

Martin_Taylor_20210506_0018-min
Dr Martin Taylor - Lecturer in Chemical Engineering

The B&W Challenge group focusses also on the pre-treatment of biomass and other waste, re-designing of processes, fitting carbon capture to energy from waste/biomass plants and designing low carbon thermal/ thermochemical treatments including pyrolysis, gasification and biochemical conversion of lignocellulosic biomass feedstocks for syngas, H2 production and chars, pyrolysis products, biogas and other value added materials and chemicals. Research activity aims to improve efficiencies at all stages of industrial bio waste-to-energy production from investigation of biomass feedstock pre-treatments, through development of thermochemical and biochemical reactors for bioenergy production to manufacture of high-value chemical bi-products such as biochar.

One of the group’s projects, led by Dr Skoulou, has been to convert biomass waste into value-added feedstock for solid biofuels and green energy production. The exploitation of alternative, green fuels, such as the lignocellulosic (woody and herbaceous) biomass waste in energy production, offers the advantages of:

  • improved waste management,
  • resource efficiency,
  • reduced dependence on imported energy and
  • increased renewables usage in power production.

Low carbon thermochemical processes such as pyrolysis and gasification, in combination with exploitation of biomass waste can reduce the carbon footprint of the energy production sector and offer an additional source of income to farmers and agro industries.

The Impact

Research activity dealing with resilient and sustainable engineering solutions offered from our multidisciplinary group researchers in the field is helping industries around the world, and the outputs are directly applicable to the real-life challenges faced by the renewable energy sector and society. The B&W Challenge Group is contributing to the development of a sustainable biomass and waste-to-energy, chemicals and materials sector all over the world, and generates low and net carbon energy and value added materials as part of the renewables mix needed for the UK to achieve its zero-carbon target.

Some only of the latest exemplar projects of: optimised biomass waste fuels and plant based fuel additives developed by Dr Skoulou, another of H2 generation from waste by Dr Taylor and a third on carbon capture and utilization storage from Dr Michailos will accelerate the decarbonization towards H2 of the energy sector, net-zero and net-negative emissions and sifting of fuels in a de-fossilized future. In this way any underestimated biomass and other ‘waste’ sources produced locally will be upgraded to a highly desirable and sustainable feedstock for further bioenergy related uses and innovation which is brought by a multidisciplinary approach in the field.

Top