Professor John Brammer

Professor in Chemical Engineering

Prior to joining Chester in early 2016, John worked at Aston University as a Lecturer then a Senior Lecturer in Chemical Engineering.  He started at Aston in 1997 as a Research Assistant, and completed a PhD in 2001 in the production of energy from biomass. John obtained a Lectureship in the Chemical Engineering and Applied Chemistry subject group in 2002, and since then has developed his teaching to include heat and mass transfer, process simulation, process economics and particle technology.  He is also active in research in the field of energy systems. He obtained a Senior Lectureship in 2013.

Qualifications

  • BSc with First Class Honours in Mechanical Engineering, University of Southampton, 1981
  • MEng in Engineering and Management, University of Durham, 1982
  • MSc in Renewable Energy Systems Technology, Loughborough University, 1997
  • PhD in bio-energy systems analysis, Aston University, 2001

Membership of Professional Bodies

Chartered Engineer, Member of the Energy Institute, Fellow of the Higher Education Academy

Overview

Before joining Aston, John worked extensively in industry, with both Rolls-Royce plc on aero gas turbine combustion, and with PowerGen plc primarily on stationary boilers.

Employment

  • 2016 - present: Professor in Chemical Engineering, University of Chester
  • 2013 - 2015: Senior Lecturer, Chemical Engineering and Applied Chemistry, Aston University
  • 2002 - 2013: Lecturer, Chemical Engineering and Applied Chemistry, Aston University
  • 1997 - 2002: Research Assistant, Bioenergy Research Group, Aston University.
  • 1990 - 1995: Group Leader, Combustion Section, Power Technology, PowerGen plc., Nottingham
  • 1983 - 1990: Technologist, Combustion Department, Engineering Division, Rolls-Royce plc, Derby 

Teaching

John has taught the following subjects to students on Chemical Engineering and Applied Chemistry undergraduate programmes:

  • Heat Transfer to Level 4, 5 and 6 students
  • Process Simulation to Level 5 students
  • Chemical Engineering Laboratory to Level 5 students
  • Process Economics to Level 6 students
  • Particle Tecnology to Level 6 students
  • Mass Transfer to Level 5 students
  • Design Project to Level 6 students
  • Meng Research Project to Level 7 students

PhD Supervision

Completed: 9 students, various topics

Available to supervise new suitable applicants in the field of energy systems analysis, and design analysis and modelling of energy system components.

Research

John's research interests are in the field of energy production systems, in particular bio-energy systems. He specialises in overall system modelling and analysis, and also in computational fluid dynamics analysis of individual plant components. He also carries out experimental research in gasification and pyrolysis systems.

Recent research funding

1 EC Marie Curie IAPP project.  1 Innovate UK Localised Energy Systems project.  2 EPSRC DTA grants under Supergen programme.  3 EPSRC Industrial CASE awards.  1 Innovate UK KTP award.

Published work

Last five refereed publications:

Hossain, A. K.; Serrano, C.; Brammer, J.; Ph.D.; Omran, A.; Ahmed, F.; Smith, D.; Davies, P.  (2015). Combustion of fuel blends containing digestate pyrolysis oil in a multi-cylinder compression ignition engine. Fuel, accepted for publication, in press.

Yang, Y.; Brammer, J. G.; Mahmood, A.S.N.;  Hornung, A. (2014). Intermediate pyrolysis of biomass energy pellets for producing sustainable liquid, gas and solid fuels.  Bioresource Technology, vol 169, 794–799.

Wright, D. G.; Dey, P. K.; Brammer, J (2014). A barrier and techno-economic analysis of small-scale bCHP (biomass combined heat and power) schemes in the UK. Energy, vol 71, 332–345.

Gilbert, P. J.; Alexander, S. A.; Thornley P.; Brammer, J. G. (2014).  Assessing economically viable carbon reductions for the production of ammonia from biomass gasification.  Journal of Cleaner Production, vol 64, 581–589.

Wright, D.; Dey, P. K.; Brammer, J. (2013).  A fuzzy levelised energy cost method for renewable energy technology assessment.  Energy Policy, vol. 62, 315-323.