Professor Laurie King

My profile

Biography

I am a Material Chemist working in the field of electrocatalysis and electrochemical storage and conversion technologies.  Our research is focused on developing new materials and fundamental understanding to develop clean, sustainable and green technologies for a Net Zero future.  More specifically, our research group is focused on the design, discovery and characterisation of new materials and catalyst motifs.  In particular, we are interested in characterising these materials in fuel cells and electrolysers. This involves nanoparticle synthesis as well as extensive materials and electrochemical characterisation.  Our work is highly collaboratively, and we currently work theoreticians, beamline scientists, microscopists, engineers and more.  

Interests and expertise

  • Electrocatalysis and photoelectrochemistry 
  • Water splitting (electrolysis), carbon dioxide reduction reaction, ground water remediation
  • Nano-material synthesis and characterisation
  • Energy storage and conversion technologies

Impact

Policy and Roundtable Engagement

Committee Membership

  • Royce Electrochemical Systems Steering Group - 2022 - present
  • UK Catalysis Hub Committee on Catalysis for Net Zero - 2022 - present
  • Royal Society of Chemistry Local Section Manchester & District - Secretary 2020 - 2022

Expert Peer Reviewer 

  • Peer Reviewer for numerous journals including: Nature, Nature Communications, Joule-Chem, ACS Catalysis, ACS Appl. Mater. Inter., ACS Omega, Electrochim. Acta, Electrochem. Commun. etc 
  • Member of the Associate College of EPSRC Reviewers (2021 – onwards) 
  • Regular peer reviewer for EPSRC
  • Invited peer reviewer for Office of Basic Energy Sciences (BES) - US Department of Energy (DoE) Office of Science.

Membership of Professional Associations

  • Member of Royal Society of Chemistry (MRSC)

Projects

Overview

Research in the King Lab is focused on the design, synthesis and characterisation of materials and catalysts with interesting and unique properties for applications in renewable energy conversion and storage technologies.  Our work is motivated by the need to design a more sustainable and green future.  Our research is highly collaborative, engaging with numerous industrial and academic partners and lies at the interface of chemistry, materials science and physics. 

Primary Research Themes

  • Catalyst design and discovery
  • Characterisation of heterogeneous catalysts
  • Electrolysis & fuel cell technologies
  • Electrosynthesis of alternative fuels & commodity chemicals

Research Background

Electrocatalysis are central to numerous energy conversion and storage technologies.  Our approach is to explore fundamental understanding of materials and catalysts to drive the discovery of catalysts with enhnaced activity, selectivity and durability.  

Interested in working with us?

We are always interested in hearing from highly motivated students, researchers as well as industry who would like to discuss research opportunities (funded and self-funded) and collaborations.  

Teaching

Undergraduate & MSc Teaching

Chemistry & Society 2 - We focus on semiconductors and solar cells in my portion of the course.  We seek to explore 1) how a solar cell works, 2) how solar cells are manufactured in industry and research labs today, and 3) how to understand the performance of a solar cell (e.g. how efficient is a solar cell?).  This course is an excellent opportunity for students to learn about technologies that is essential for the globe to reduce our carbon emissions and meet renewable energy targets.     

Frontiers (MChem) & Energy Materials (MSc Advanced Materials).  In this course we discuss next-generation energy storage and conversion technologies.  Specifically, we discuss the challenges and opportunities of energy production technologies (from fossil fuels to renewables to green hydrogen).  Primarily, we focus on energy technologies that provide transformative routes to large-scale decarbonisation of energy.  From batteries, to supercapacitors and fuel cells, we will discuss how these technologies work, how to effectively compare technologies to each other, and the materials that are used essential to their operation.  This course provides students with the required knowledge to understand how our future energy and electricity requirements will meet Net Zero requirements.  

Bulk Characterisation (MSc Advanced Materials).  This course provides an in depth discussion to enable students to gain an expert understanding of numerous bulk characterisation techniques.  Specifically, in my portion of the class I will teach x-ray diffraction (XRD) and secondary electron microscopy (SEM).  The course is designed to incorporate numerous research examples so that students become familiar with interpretating and assessing data in industry and academia.  

Physical Chemistry Labs (Second year).  All second year Chemists join us to apply prior physical chemistry knowledge in the laboratory.  From kinetics, thermodynamics and surface chemistry we give students a broad and wide ranging experience of applying theory.  Beyond our work together in the lab, learning to produce high quality figures and interpret findings is an essential learning outcome for your future careers - no matter which profession you pursue.  

BSc, MChem, MSc.  Interested in understanding materials and how we can apply our knowledge for a green and sustainable future?  Research projects are available for motivated students who want to learn to synthesise advanced functional nano-materials as well as materials and electrochemical characterisations.  We work with students across all levels of their study, from BSc projects and summer internships, through to PhDs and Postdoctoral positions.  

Why study Advanced Materials?

Materials are all around us with numerous applications spanning almost all of our world.  From medical devices, paints, polymers to renewable energy technologies, materials play a critical role in our society.  Through the study of materials chemistry, you can learn how to synthesise and characterise the materials to understand how to design new generation technologies and solutions for our ever evolving planet.  The topic is extremely multidisciplinary, with scientists from all areas of STEM engaging together.  Owing to the significant application of materials, there are numerous strong ties to industry from academia.  

Supervision

MRes and PhD Project Supervision

Want to undertake cutting edge research that will contribute to CO2 reductions?  Our research group is always seeking highly motivated and enthusiastic students interested in MRes or PhD programmes.  From water splitting (hydrogen production) to carbon dioxide reduction and ground water remediation technologies, our work is focused primarily on the synthesis and characterisation of electrocatalysts for both lab-scale and commercially relevant device testing.  Please get in contact if you are interested in working with us!  

PhD Students

  • Debora Belami (2020 - present)
  • James Waggett (2022 - present) - iCASE award with Johnson Matthey

MSc Project Students

  • Jake Farrell (2021)
  • Daisy Geary (2022)

UG Summer Research Students (paid positions)

  • Rebekah Luff (2022)
  • Rachel Luson (2022)
  • Umar Khayat Khan (2022)
  • Lauren Paszczuk (2021)
  • Amy Clarke (2021)
  • Fahmida Begum (2021)
  • Sam Lennard (2020 - 2022)

Research outputs

Press and media

Media appearances or involvement

  • Expert interviewee invited by BBC 4 “The Bottom Line” to discuss the “Hydrogen Future” aired on Thursday 18th March 2021.