Dr. Richard Johnston is an Associate Professor in the Materials Research Centre, Swansea University, a 2013 British Science Association Media Fellow (based at Nature), and a 2015 Software Sustainability Institute Fellow.
Embracing a multidisciplinary approach, Richard's research has taken him from artificial intelligence in manufacturing, through gas turbine materials (abradables, nickel superalloys, ceramic matrix composites), and on to X-ray microtomography. He leads the X-ray Imaging group at Swansea, and chairs the Swansea University Research Forum (SURF) Executive Group. He is also Co-Director of the Materials Academy and sits on the Institute of Materials Minerals and Mining Education Committee, in addition to devising the #ResearchAsArt Awards and PI of the outreach and engagement programme Materials: Live.
Research grant capture as PI or Co-I of over £20Million since 2014, and is Co-Director of the £9M EPSRC/WG-funded Advanced Imaging of Materials (AIM) centre. Richard is an advocate of collaboration, and a champion of public engagement with research.
Richard has written for Nature, Scientific American, The Guardian, Huffington Post, and has worked on TV documentaries with the BBC (Rhys Jones’ Wildlife Patrol) and Horizon (Animal Mummies).
For more information visit Dr Johnston’s research group website.
Johnston, Richard E.,Pleydell-Pearce, Cameron.,Clarke, Alan.,Mouzakitis, Kyriakos.,Wechie, Leon.,Xu, Ling. & Allott, Ric. (2019). Bridging Industry to Beamline through an Advanced Laboratory-Based Characterisation Facility. Microscopy and Microanalysis 25(S2), 786-787.
Mitchell, Ria L..,Freitag, Stefanie.,Volkenandt, Tobias.,Russell, James.,Davies, Peter.,Pleydell-Pearce, Cameron. & Johnston, Richard. (2019). What Lies Beneath: 3D vs 2D Correlative Imaging Challenges and How to Overcome Them. Microscopy and Microanalysis 25(S2), 416-417.
Mitchell, R. L..,Coleman, M..,Davies, P..,North, L..,Pope, E. C..,Pleydell-Pearce, C..,Harris, W.. & Johnston, R.. (2019). Macro-to-nanoscale investigation of wall-plate joints in the acorn barnacle Semibalanus balanoides: correlative imaging, biological form and function, and bioinspiration. Journal of The Royal Society Interface 16(157), 20190218
To provide a detailed understanding of fracture mechanics and fatigue of materials; relating to real-world case studies and current cutting-edge research. Failure of biological and engineered materials.
EGA163Design and Laboratory Classes 1
Competence in engineering drawing using CAD and essential laboratory skills, including mechanical testing, microscopy, and report writing
EGM402Fracture and Fatigue
To provide a detailed understanding of fracture mechanics and fatigue modelling of materials; relating to real-world case studies and current cutting-edge research. Failure of biological and engineered materials.
EGSM11Public Engagement and Science Communication
Group workshops, group discussion, and case studies will be used to give students an enhanced understanding of public engagement and science communication, and how they can develop content. It will highlight the importance of communicating science to publics. Using examples of science communication from different outlets and aimed at different audiences.
The module will consider science communication from a researcher¿s point of view, and also journalism/press/media and how to work with science news outlets, and also from the perspective of the audience.
Students will also learn about outreach and public engagement, linked to the Materials Live programme at Swansea University, and from science engagement experts at the Royal Institution in London. This will be a residential activity based in London for two days, covering different outreach and engagement methods, language, content, and delivery styles. Group sessions will focus on developing and delivering talks, demonstrations, and web content/talking to camera.
PM-271Population Health & The Art of Research 2
This module builds upon PM-269 Population Health and the art of research 1 and is designed to provide students with the opportunity to further develop their research skills by undertaking data analysis and interpretation of the results of a small-scale research study. Students will also gain an insight into the mechanisms through which research findings can be disseminated to the scientific community, and the importance of engaging the public in research.
Research as Art is a University-wide initiative that aims to develop the engagement skills of students and staff, fertilise cross-disciplinary collaboration, raise the profile of Swansea research and its researchers, and make the University a better place to study and work.The project provides a unique mechanism of accessible outreach for all research, displaying the important and far-reaching work, and also the human aspect and emotion of research that goes on at Swansea University to a diverse and new audience.
Submissions are visually striking artwork or images and accessible, engaging text – resulting in a truly unique initiative.
This image won the Early Career Researcher award in Swansea University’s 2013 Research as Art competition. Engineer Matt Carnie explains that these solar cells from failed experiments represent a notion familiar in science – that “behind every success there are many times when things didn’t quite go according to plan".
An innovative Swansea University outreach and engagement project, which introduces the wonder of materials science and engineering to entertain, enthuse and educate potential scientists and engineers of the future. Materials Live! forms a critical component of the “Materials Academy” at Swansea; a large project that delivers multi-level materials research and training.
Provide activities that enrich the Key Stages 1- 4 Science National Curriculum in addition to A/AS level curricula.
Encourage people to study STEM subjects related careers.
Engage with teachers and deliver CPD activities to enhance the materials science-related content in their lessons.
…is an art/science/tech collaboration between Rich and local photo artist Naomi Bowey, exploring the effects objects have on our behaviour – looking at forms of collection, archiving and the compulsive act of hoarding. Naomi details the processes involved in conceiving, modifying, and ultimately producing a piece for exhibition at here other website
Institute of Materials Minerals and Mining - Education Committee
Research at the JohnstonLab in Swansea University typically covers a number of diverse fields, but is primarily focussed on characterisation of structures using X-Ray Microtomography. The group has experience investigating many varied materials, from plant and biological specimens, to dense superalloys.
We have a focus on biomimetics and bioinspiration. Using X-Ray CT to investigate the hidden internal worlds of nature, and thinking about how and why these structures formed. We then look for challenging engineering applications that could benefit from the inspiration gained from these natural architectures. Utilising 3D-printing, we can create rapid replicas or prototypes of previously hidden structures found via X-ray CT, demonstrated on an everyday object.
The group also researches aerospace materials, focussing on the destructive and non-destructive characterisation of abradable coatings, ceramic-matrix-composites, and nickel-based superalloys among others. Corrosion studies of zinc and steel alloys are also ongoing.
Also, the group has expertise in applying artificial intelligence to a number of areas including manufacturing, process optimisation, creep of metals, and sports performance.
Specific strengths in X-ray computed tomography have resulted in collaborations with glaciology, tephrochronology, regenerative medicine, Egyptology, corrosion scientists, and many others.
The underlying ethos behind work at JohnstonLab is that we are passionate about interdisciplinary and collaborative research; and the excitement and energy that working with researchers from very different fields can provide.
Current Research Projects include:
Nature’s Hidden Worlds – Investigating internal architectures within nature via X-ray microtomography. The aim is to consider the function of natural structures non-destructively, using 3-dimensional data to optimise the engineering and design of structures at varying length scales. Evolutionary optimisation, biomimetics, and bioinspiration leading to improved engineering. With PhD student Laura North @Loobags87
Abradable Coating Materials – The aim of this research project is to study numerous mechanical characterisation technologies to further understand how abradable coatings behave. This data will also feed into a model that has been constructed to help predict abradable material lifetimes in service. With PhD student Dan Moyle @DanMoyle8 and in collaboration with Rolls-Royce plc.
Gas Turbine Superalloys – The aim of this project is to develop optimum forming and heat treatment routes for selected casing and bolting alloys in gas turbines – in particular, ring rolling of Nickel-based superalloys. With EngD student Sam Gardner and in collaboration with Rolls-Royce plc.
Laser Ultrasonics – Investigating laser ultrasonics and their application to additive manufacturing. With PhD student Simon Garner and in partnership with TWI.
Imaging of Volcanic Debris/Tephrochronology – A collaborative project with Prof. Siwan Davies, Adam Griggs, and Dr Peter Abbott, investigating X-ray CT as a method of imaging volcanic deposits and networks in sub-sea core samples.
Ancient Egyptian Clay Cobra Figurines – Collaborative project with Dr Kasia Szpakowska investigating failure mechanisms in clay cobra figurines, relating fracture behaviour to human behaviour. A nice taster video
Using ‘digital’ Materials to Establish a Novel Investigative Platform for Cardiac Arrest – Collaborative project with Dr Peter Theobald (Cardiff Uni) to develop a realistic material heart model via additive layer manufacturing
Medical Device Optimisation – An industry collaboration with Dr Steve Brown (Haemair Ltd.), Dr Raoul van Loon (Swansea University) and Claudio Donofrio (PhD student) imaging device architecture and modelling bloodflow.
Providing new model organisms for biomedical research: The tale of molluscs, mice and men – Collaborative project with Dr Anwen Williams (Cardiff University) and Dr Andrew Davies (Bangor University) to investigate the feasibility of molluscs as new model organisms for bone.
MAM (Materials: Ancient and Modern) – A collaborative project with Dr Ian Mabbett, Dr Matt Carnie, and Dr Tracey Rihll. Taking inspiration from Roman concrete, we’re investigating the use of waste slags from industrial sites.
Additive Protection – A collaboration with Dr Peter Theobald investigating optimised structures from additive layer manufacturing applied to the safety and impact industry.
Arthritis Research – Collaborating with Anwen Williams (Cardiff University) on her arthritis project and investigating new ways of characterising arthritic features.
Structure-Property Relationships in Biomaterials – Collaborating with Dr Michelle Oyen (Cambridge University) on a number of themes, materials, and species to investigate the physical architecture of natural materials and their mechanical properties.
Degradation of Titanium Implant Materials – Collaboration with Dr Zhidao Xia (Swansea University) to investigate ‘biocompatible’ titanium alloys and their degradation in the body
Cartilage Regrowth – Working with Dr Ilyas Khan and Dr Lewis Frances (Swansea University) to study and characterise cartilage regrowth mechanisms.