Physical Sciences priority areas
New and Novel Approaches to the Design and Discovery of Materials and Molecules (Early Career fellowships only)
Through this fellowship priority area EPSRC aims to encourage research looking to develop creative new approaches to the design and discovery of novel structures, molecules and materials with specific functionality, unique properties, or desired performance in mind. Included within this area are the design and synthesis of novel organic, organometallic, and inorganic structures. Research may focus on the discovery of new synthetic methods, development of innovative reagents or catalysts, development of material deposition/growth techniques, and modification of molecules and materials. Approaches are likely to be highly novel, and are expected to be potentially transformative for the delivery of new structures, molecules and materials more quickly, efficiently and sustainably.
Proposals can be purely experimental in approach, or may combine experimental with theoretical and computational elements, but applicants wishing to focus on computational/theoretical technique development or purely computational studies of properties should consider other Physical Science fellowship priority areas. Engagement with contiguous research fields is desirable, and cross-fertilisation of ideas from other disciplines is encouraged. Therefore in addition to the main focus being on chemistry, physics and material science, we envisage the involvement of disciplines as diverse as ICT, engineering, mathematics, medicine and biotechnology to encourage creativity and adventure in developing new synthetic methods. Applicants should also consider the interests and role of end users in the development of their research ideas, and how they should engage with relevant end users on pathways to application.
Applicants to this priority area should consider how their research has the potential to address the many ambitions described in EPSRC Outcomes Framework over the immediate to long-term. Access to novel structures, molecules and materials underpins many goals within Productive, Resilient, Healthy and Connected Nation. Applicants should consider how their research aligns to and/or capitalises on strengths within the wider national landscape, e.g. the Henry Royce Institute, the Francis Crick Institute as well as the capabilities of national facilities such as Diamond Light Source.
Through this fellowship priority area EPSRC aims to encourage leading theoretical and computational researchers within the remit of EPSRC's Physical Sciences theme to gain research independence at an early stage in their career. This area brings together theoretical and computational chemistry, physics and materials research which can have common approaches but are often separated by traditional discipline boundaries. Through the introduction of this area, EPSRC aims to drive the development of innovative new theoretical and computational approaches to physical science research. EPSRC encourages applicants to take advantage of advances in mathematical and computer science techniques or to apply existing techniques to new problems.
This priority area includes new and novel computational and theoretical work within the remit of EPSRC's Physical Science theme. This could include, but is not limited to, analytical and numerical approaches, development of new software for use in fundamental physical science research, and big data/artificial intelligence approaches to physical science research. All research should have the development of new theoretical and computational methods for the discovery of new physical science knowledge, or the development of new approaches, as its primary objective. We encourage theoretical and computational researchers to engage and collaborate with experimental and/or applied researchers, but this priority area should not be used as a route for funding large experimental projects. Funds for experimental research undertaken for validation are admissible in this priority area.
Applicants to this priority area should consider how the proposed activities of their fellowship align to EPSRC's outcomes framework, particularly elements of the Productive and Connected Nation outcomes. Applicants should also consider EPSRC's policy framework on research data and the policies of the EPSRC supported Software Sustainability Institute.
Transforming Understanding of Physical and Chemical Phenomena and Processes (Early Career fellowships only)
Through this fellowship priority area EPSRC aims to encourage the development of approaches that can elicit new understanding of physical and chemical phenomena and processes. This could include the development of new tools and techniques, the application of techniques from other disciplines, or the transformative characterisation of new materials. The elucidation of the previously inaccessible information thus obtained should have the potential to have a major impact on the nature of the research that can be conducted.
This priority area includes research which will cause a step change in our understanding of physical or chemical behaviour. Such research may cover a diverse range of topics including: improving the fundamental understanding of electron behaviour within molecules or solids, determining new reaction mechanisms and synthetic processes through the identification of previously unknown reaction intermediates, and transforming understanding of molecular interactions or material behaviour through structural and chemical characterisation. New approaches employed could include (but are not limited to) developing the ability to make in situ measurements, or to allow molecular reactions to be studied on single molecules.
Applicants should consider how the research within their fellowship can have an accelerated pathway to impact through the engagement of end users throughout their fellowship. Furthermore, applicants to this priority area are expected to demonstrate how their research will contribute to the EPSRC prosperity outcomes framework such as the Healthy Nation, Connected Nation or Productive Nation and the ambitions contained within these. They should also consider the relevance of the research to the challenge areas set out in the Industrial Strategy such as bioscience and biotechnology, and manufacturing process and materials of the future.
Through this fellowship priority area EPSRC aims to encourage early career physical sciences researchers to develop their careers and become leaders in interdisciplinary research that brings novel physical sciences to bear on challenges in the health and life sciences.
This priority area includes fundamental physical sciences innovations and developments, in interdisciplinary areas such as (but not limited to) biophysics, biological physics, chemical biology and biological chemistry, and materials science. All applicants to this priority area should have a clear vision of the area of long term impact for their research in the health and life sciences, whether this impact is on a health or disease challenge, or on advancing technologies and approaches for basic biomedical science. Research which primarily focusses on the development of diagnostic or therapeutic technologies, or on advancing biological or biomedical understanding, lies within other priority areas across the research councils.
All applicants should demonstrate that they have considered the pathway from novel fundamental physical sciences research to impact, including clinical or laboratory application, through the development of collaborations with end users from other research communities or industrial sectors.
This area is directly related to the cross council initiative Technology Touching Life, and applicants should consider how their research contributes to EPSRC's Healthy Nation Outcome. Applicants may find the Healthcare Technologies Impact and Translation Toolkit useful in the preparation of their application.
Through this fellowship priority area EPSRC aims to draw in ambitious new ways that novel physical sciences research approaches could ultimately have a transformative impact on the Energy sector. It aims to inspire collaborative research between Physical Sciences research areas, with future relevance to Energy. This will enable greater diversity in the area and promoting interdisciplinary networks linking the two fields together.
This priority area includes research that involves novel chemistry, physics or materials approaches that can be pulled through to demonstrate clear potential applications in the energy sector, resulting in a major step change for Energy. Examples of relevant areas of research include (but are not limited to) re-cycling/re-use and sustainable innovations, critical elements and strategic materials, application of theoretical and computational methods, electrochemistry, surface science and analytical science techniques that could offer new and unique insights into the fundamental physical science processes within energy applications.
Applicants to this priority area should demonstrate inventive ways in which their research ideas could have medium to longer term impact in the energy sector. This includes establishing appropriate collaborations to their research or through Pathways to Impact activities, in order to build links with the relevant end users of the research outputs. Applicants should consider the recent prioritisation of 'smart flexible and clean energy technologies' as a focus challenge area within the Government's Industrial Strategy Challenge Fund. The fellowship area would feed into Resilient Nation and Productive Nation of the EPSRC Outcomes Framework, in particular the ambition to 'Achieve energy security and efficiency' and 'Introducing the next generation of innovative & disruptive technologies'
Through this fellowship priority area EPSRC aims to support researchers who wish to challenge the traditional approaches used to conduct research in their area of chemistry, material science, or physics research. This should include combining/changing approaches or methodologies, bringing them in from other fields or disciplines, or making previously unforeseen connections between disparate research ideas.
This priority area will support high risk, transformative research agendas that demonstrate the potential to drive cultural innovation in physical sciences. Applicants to this area should consider the potential of their research, to create paradigm shifts within and between disciplines, create new fields of research, and/or change the direction of travel for whole areas.
Applicants to this priority area should clearly demonstrate the benefits of undertaking such a fellowship and approaching it in this manner. As well as delivering high quality, novel research outputs, we expect fellowships of this type to be highly influential on the research styles, approaches, and/or methods of the relevant scientific field(s). As a fellow you will be expected to be able to provide the community leadership required to encourage adoption of these. Taking into account the cultural and high-risk nature of such a fellowship we would expect that the work plan would deviate from that of a traditional research fellowship in order to support these aspects.
Through this fellowship priority area EPSRC aims to encourage research leaders in biophysics and soft matter physics to push the boundaries of research in this highly interdisciplinary area.
Established career fellows in this area are expected to undertake ambitious new research at the boundaries between chemistry, physics, and life sciences. Relevant research may be focussed on bringing together quantitative, experimental and theoretical approaches from physics with biological questions and hypotheses, to study problems at and across a range of biological length scales and to understand biological systems. Alternatively, it may be focussed on the investigation of the structure, self-assembly, kinetics and properties of liquids, colloids, particles, formulations, gels, foams, sprays, soft solids and interfaces.
Applicants to this priority area should consider the interdisciplinary aspects of their fellowship, particularly how they will build links with other relevant research communities (e.g. biology, medicine, polymer science, materials science, chemical engineering), and how they will facilitate the pull through from fundamental physical sciences to application. Input from end users and/or other research communities is particularly encouraged.
It is expected that applicants will consider how their fellowship might contribute toward delivering the biophysics and soft matter physics research area strategy, as well as how it might deliver against priorities within the EPSRC outcomes framework, for example the Productive Nation and/or Healthy Nation.
Established Career Fellows in Biophysics and Soft Matter Physics are expected to advocate for and contribute towards the development of the UK research community in this area. For biophysics this includes contributing toward a more cohesive interdisciplinary community which will deliver collaborative, problem-focused experimental and theoretical research at the interface with biology and medicine.
Through this fellowship priority area EPSRC aims to encourage the creation of a more integrated community of researchers that enable the acceleration of discovery, characterisation and integration of novel materials with the potential to make a step change in future energy applications in the transition to a low carbon economy.
The focus of established career fellowship applications in this area should predominately be on development of novel materials with the potential for energy applications. This priority area only includes research into materials for current and future energy technologies. Specific application areas for new materials include advanced batteries for electrical vehicles and broader energy storage solutions, solar cells, low energy semiconductor materials, catalysts for the conversion and capture of CO2. It does not include technology development, which is covered in related priority areas.
Applicants to this priority area should consider the importance of materials for energy applications to external bodies such as the AMLC (Advanced Materials Leadership Council) and the Henry Royce Institute. They should also consider the ambition of EPSRC to support the growth of this area and alignment with wider strategic investments within the RCUK Energy Portfolio. It is expected that this fellowship area would feed into Resilient Nation of the EPSRC Outcomes Framework, in particular the ambition to 'Achieve energy security and efficiency'. Applicants should consider the recent prioritisation of 'smart flexible and clean energy technologies' as a focus challenge area within the Government's Industrial Strategy Challenge Fund. An established leader in this area should be able to enhance cohesion within the community and actively engage with other disciplines in the Energy sector to promote the impact the research area can have.
Through this fellowship priority area EPSRC aims to facilitate the development of strong leadership within the diverse surface science community to encourage the creation of a cohesive, integrated community of researchers. As an Established Career fellow, you will be expected to deliver transformative fundamental research in this area, helping to ensure a strong core research capability for the future.
The focus of fellowships within this area should predominantly be in the development and use of new, highly specialised instrumentation and techniques to explore fundamental questions in chemistry and physics. This priority area includes the development of innovative techniques and new approaches to understand the structure, processes, dynamics and functionality of surfaces and interfaces, and how these determine chemical and physical properties. Research focussing primarily on the use of common surface analytical techniques to examine novel surfaces or interfaces for a range of applications (for example materials development, catalysis, or tribology) is covered elsewhere within EPSRC. Surface Science research has the potential to make a significant contribution to research challenges across a number of sectors important to the UK economy, such as manufacturing, healthcare technologies, energy and transport. Applicants to this fellowship area should consider how they will facilitate the pull through from underpinning fundamental physical sciences into relevant research communities and/or end users. Applicants should also consider how their fellowship may contribute to the outcomes framework, for example the Productive and Healthy Nation outcomes.
Established Career Fellows in this area should be able to enhance cohesion within the Surface Science community and demonstrate active engagement with other researchers across other disciplines and research challenges to promote the impact of Surface Science research.
Chemical Biology and Biological Chemistry (Established Career fellowships only) To be closed at the Early Career stage 02 February 2018
Through this fellowship priority area EPSRC aims to encourage new physical sciences innovation in Chemical Biology and Biological Chemistry, and has been put in place to support individuals pursuing adventurous research in this highly interdisciplinary area. However, as an Established Career fellow you will also be expected to provide leadership for the community, contributing to the development and maintenance of a strong core research capability for this area within the UK.
This priority area includes the development of novel chemical tools and techniques for biological systems, as well as biologically inspired chemistry. Fellowship applications must primarily focus on novel chemical and physical approaches, as opposed to the application of known chemical techniques and methodologies to life science fields such as cell or structural biology research. Applicants are encouraged to use the remit query service if they are unsure whether the research falls predominantly within EPSRC, BBSRC, or MRC remit.
Chemical Biology and Biological Chemistry research has the potential to impact on a number of areas across disciplinary interfaces, and applicants to this priority area should consider how their fellowship and the research within it will realise impacts on research communities and/or end users beyond the physical sciences, as recognised in the cross council Technology Touching Life initiative. Potential areas of impact include, but are not limited to: synthetic biology, bioenergy, drug discovery and development, personal care, and life science disciplines. Applicants should consider how their Pathways to Impact plans will be integral to the research project; input from end users and/or other research communities in the development and planning of the research is particularly encouraged. Finally, it is expected that applicants will consider how their fellowship might contribute toward the realisation of challenges articulated in the Outcomes Framework within EPSRC's Delivery Plan, for example the Healthy Nation and Resilient Nation.
Contacts for new Priority Areas
- Design and discovery of materials, molecules and systems: Ian Hickman
- Theoretical and computational physical sciences: Mark Tarplee
- Transforming understanding of physical and chemical phenomena and processes: Sally Birse
- New physical sciences for biology and medicine: Ellen Meek
- New physical sciences for energy: Jaspreet Kular
- New ways of working in the physical sciences: Anna Angus-Smyth
- Materials for Energy: Jaspreet Kular
- Biological Chemistry and Chemical Biology: Eleanor Jaskowska
- Biophysics and Soft Matter: Ellen Meek
- Surface Science: Nyree Hill
The following priority areas will be closed to applications from 02 February 2018:
Theoretical physics (Postdoctoral fellowships only) To be closed 02 February 2018
Specifically encompassing theoretical work in the areas of: magnetism, superconductivity, quantum fluids, lasers, plasmas, atomic, molecular and optical physics, surfaces and interfaces, and soft condensed matter physics.
Graphene and Carbon-based nanomaterials (Early Career fellowships only) To be closed 02 February 2018
The synthesis, characterisation and theoretical understanding of graphene, carbon nanotubes and other carbon based nanomaterials. This area includes understanding the fundamental properties of carbon nanomaterials, development of new growth methods, understanding the influence of defects on properties and exploring possibilities for nanoscale carbon electronics. This area does not include device fabrication, carbon composite materials or materials processing as these are covered in related research areas. Priority to connect with Challenge themes.
Software development for novel Physical sciences research (Early Career fellowships only) To be closed 02 February 2018
As EPSRC invests in the next generation of high performance computing both at national and regional levels, it is essential that our researchers are able to use this provision to its maximum capability in order to undertake excellent research by having software that is of high quality and is reliable and sustainable. We are looking to appoint fellows who have some experience of using and developing software in their chosen field and are looking to widen the use and usability of this software in order to undertake high quality research in Physical sciences. Innovative approaches to this development, and collaboration nationally, internationally and across disciplines is welcomed.
Novelty must be demonstrated in both software development and in the research that will be enabled, which must be within the remit of Physical sciences. We are looking for applications which demonstrate excellent awareness of the impact of software development in the applicant's research area and further afield. The applicant needs to demonstrate the ability to lead the strategy for the development of the chosen software strand and to engage with leaders in the research field(s) who are both users and potential users of high end computing.
Catalysis (Early Career and Established Career fellowships only) To be closed 02 February 2018
Structural and kinetic studies to understand the molecular mechanisms involved in catalytic reactions, preparation of novel or improved catalysts.
Quantum optics and information (Early Career and Established Career fellowships only) To be closed 02 February 2018
Quantum information processing; quantum metrology; quantum error correction; quantum optics; cavity quantum electrodynamics and quantum state characterisation.
It covers theory and experiment into quantum mechanics.
Next generation quantum technologies will rely on our understanding and exploitation of coherence and entanglement. Utilising properties beyond the classical limit will transform metrology, communication, imaging, the simulation of complex systems, and ultimately computing. Success requires a deeper understanding of quantum physics and a broad ranging development of the enabling tools and technologies.
Physical sciences Grand Challenges (Early Career and Established Career fellowships only) To be closed 02 February 2018
To help address the identified Physical sciences grand challenge areas we are inviting applications for fellowships. It will need to be made clear how the research would address the challenge particularly in relation to other relevant activity and what role the individual will play help to lead/push the Grand Challenge approach forward. Where new networks are key to addressing this challenge the leadership role of the fellow in helping to develop and building these will need to be outlined. Please read the FAQs (PDF) before submitting your application, there are areas for both Physics Grand Challenges and Chemical Sciences and Engineering Grand Challenges.
Analytical science (Early Career and Established Career fellowships only) To be closed 02 February 2018
EPSRC would like to encourage Early and Established Career Fellowships in Analytical Science. This research area covers the development of novel techniques and thee novel application of existing techniques in analysis across the physical science remit.
Chemical Biology and Biological Chemistry (Early Career fellowships) To be closed 02 February 2018
EPSRC would like to encourage Early and Established Career Fellowships in Chemical Biology and Biological Chemistry. This research area covers the application of chemical techniques for the understanding of biological processes and the synthesis of biologically active and biological molecules. It also covers biomimetic chemistry, including producing simplified chemical models of complex biological systems.
Computational and Theoretical Chemistry (Early Career fellowships only) To be closed 02 February 2018
EPSRC would like to encourage Early Career Fellowships in Computational and Theoretical chemistry. Computational and Theoretical chemistry involves the study of chemical structure, bonding and reactivity in chemical systems using mathematical and computational methods and also the development of such methods.
Electrochemical Sciences (Early Career fellowships only) To be closed 02 February 2018
EPSRC would like to encourage Early Career Fellowships in Electrochemical Sciences. Electrochemical Sciences covers research into the study of chemical phenomena associated with charge separation and charge transfer including electron transfer theory, elucidation of electrochemical reaction rates and mechanisms, and the study of the role of electron in advanced materials. This area also includes the development of novel electrodes and electrolytes.
Functional Ceramics and Inorganics (Early Career fellowships only) To be closed 02 February 2018
Functional ceramic and inorganic materials have diverse applications in areas important for tackling key technological and societal challenges including energy and electronics and for advancing growth and economic development. The research community is buoyant, but we need to ensure that we are encouraging the development and support for new research leaders.
Synthetic Supramolecular Chemistry (Early Career fellowships only) To be closed 02 February 2018
EPSRC would like to encourage Early Career Fellowships in Synthetic Supramolecular Chemistry. This research area covers the study of the design and synthesis of chemical systems using molecular self-assembly and molecular recognition. This includes the synthesis of host-guest complexes, supramolecular clusters and mechanically interlocked molecular architectures.
Cold Atoms and Molecules (Established Career fellowships only) To be closed 02 February 2018
In order to ensure that the UK continues to contribute at an international level in this area, EPSRC encourages Established Career fellowships for research, where the individual already has, or has access to, established research infrastructure.
EPSRC Cold atoms and molecules includes theoretical and experimental studies of properties and applications of Bose-Einstein condensates and Fermi gases, as well as methods for cooling atomic and molecular species to sub-millikelvin temperatures.
Soft Matter Physics (Established Career fellowships only) To be closed 02 February 2018
EPSRC would like to encourage established career fellowships in soft matter physics.
Fellowships are also available in soft matter physics at the early career stage where relevance to the Physical sciences grand challenges can be demonstrated or at the Print and Digital Research Forum stage for theoretical and computational research.
Materials for Energy Applications (Early Career fellowships only) To be closed 02 February 2018
Research into the synthesis, characterisation and theoretical understanding of materials for energy applications is essential to the overall Research Councils UK (RCUK) Energy strategy.
The recent RCUK Review of Energy and European Science Foundation (ESF) Materials Science and Engineering Expert Committee report into Materials for Key Enabling Technologies (PDF 5.9MB) highlight the importance of underpinning materials research in order to progress technologies to address the energy agenda. The UK materials research community in this area is buoyant and new academic staff are being recruited. UK industry is also involved: according to the RCUK Review of Energy the UK is internationally leading in the areas of third generation photovoltaics, fuel cells, and lithium energy storage, areas which rely on high quality materials research. Companies such as Nexeon, Oxsys, Ceres Power and Rolls Royce all have interests in this area so the academic research base provides a strong foundation for their continued development. There will also be opportunities presented by challenges such as decarbonising the energy grid and improving systems for carbon dioxide (CO2) capture. Materials research will be key to achieving these goals.
The UK is world-class in materials research. In order to maintain this status we need to ensure the supply of young research leaders. The RCUK priorities for energy research (which include securing energy supply; low carbon innovation; and reducing energy consumption) offer particular opportunities. However there is also scope for speculative research in the physical sciences aimed at new disruptive technologies.
As the Energy challenge theme recognises, building capacity through the support of early career researchers to support innovative research and develop leadership potential is an important component of the strategy. We will echo that by supporting early career fellowships in this research area. In providing support we will be looking for individuals who not only have the potential to become research leaders in their own right, but who are also bringing innovative materials science to bear on the challenges identified by the Energy theme.
Alongside the input detailed in the Physical sciences: Our approach page, direct communications with individual researchers nominated by the Institute of Physics and Royal Society of Chemistry have provided additional information on this research area.