Building the Queen's University of Belfast AMR Network (QUBAN)

Lead Research Organisation: Queen's University Belfast
Department Name: Sch of Chemistry and Chemical Eng

Abstract

Antimicrobial resistance (AMR) is becoming a serious health issue since the number of bacteria which are resistant to existing antibiotics is rising faster than the supply of new antibiotics. This proposal aims to encourage researchers from Engineering and Physical Sciences in QUB to engage with the AMR problem by bringing them into contact with specialist AMR researchers who are primarily located in the Schools of Biology and Medicine, Dentistry & Biomedical Science (MDBS) and are much more familiar with the issues surrounding AMR. They can also provide a clinical perspective. This will form the basis for a new Queen's University Belfast Antimicrobial Network, QUBAN. The network will focus on the Research Councils' Theme: "Accelerating Therapeutic and Diagnostics Development". We have already identified 33 researchers from across six Schools/Centres in QUB who will be obvious members of QUBAN but we anticipate, and will actively promote, further engagement from other researchers within these Schools and from the wider research community in the University. There are exciting possibilities for using our expertise in advanced materials and processing to develop novel approaches to combating AMR through use of microbicides that are not based on small molecule drugs, these range from photogenerated electrons to cold plasmas. Similarly, modifying surfaces can help in preventing infection while sensors can be used to detect infection at the early stages. There is strength-in-depth in all these areas within QUB.

QUBAN is designed to promote interdisciplinary working through a series of activities that will run throughout the 24 month duration of the programme and beyond. Important among these are the Sandpits which are planned in Months 3 and 14. The Month 3 event will be the first major forum where we will bring together interested parties from across the University to develop novel research ideas away from everyday distractions. Funding for Proof-of-Principle studies to take these projects to the level where they will be sufficiently advanced for external grant application funding will be available. This will be complemented by a parallel funding mechanism which will be an open call for smaller grants and will cover anything from buying out laboratory supervision to free up time for writing grant applications through to travel or small items of equipment. Researchers at all levels, including PDRAs and PhD students will be encouraged to become involved in QUBAN. There is a planned seminar programme but we also envisage funding short (three month) discipline-hopping visits to laboratories in other Schools/Faculties by PhD students and "Dragon's Den" competitions for PDRAs.

The programme will be driven forward by the two PIs along with a Technical Management Group who will prioritise applications for funding the Proof-of-Principle proposals arising from Sandpit events and also help to set the scientific direction to the Seminar series, poster sessions and Sandpits. In addition, we will have a high level Steering Committee who will help to set the strategic direction of the Network. This Committee will be Chaired by Prof James McElnay, the University's PVC for Research and have 3 other senior academic members. Prof Rafael Canton (University Hospital Ramon y Cajal, Spain) a world leading expert on AMR, Prof Duncan Graham (Director of the Centre for Molecular Nanometrology, Strathclyde) a leading proponent of application of physical sciences to healthcare problems, and Prof Chris Hardacre (Head of School CCE, QUB) who has extensive experience in coordinating multicentre research grants. The Steering Committee will review progress every six months against targets, outputs/pathways to impact, publications and any IPR issues that may arise, ensuring the successful investment and delivery of the BTG award.

Planned Impact

This programme is expected to provide significant academic, social and economic impacts since it is aimed directly at increasing the engagement of engineers and physical scientists with the problem of AMR. The impact is expected in the medium to long term since the purpose of the proposal is not to directly fund substantial pieces of research but instead is intended to draw researchers from EPS into the area, which will bring new and very different approaches from those which currently exist. This is in essence a pump-priming exercise in which the EPS researchers can be made aware of the challenges and opportunities that lie in the field of AMR by interacting with colleagues from medicine and life sciences who are all too familiar with the difficulties of overcoming AMR. The programme is aimed at researchers at all career stages from PhD students right through to senior academics and therefore again will have a spread of impacts on those directly engaged, as well as the broader academic community and society.

Academic Impact

The first impact of QUBAN will be the members of the network itself since irrespective of their background they will have a tremendous opportunity to interact with researchers from other disciplines in a supportive environment that will actually incentivise innovative cross-disciplinary thinking and support exploratory studies of new ideas. This is valuable both for younger researchers who are more likely to be willing to work across boundaries but have fewer opportunities and for more established researchers who need a real incentive to move out of their comfort zones and engage with scientists from very different backgrounds. More broadly, QUBAN activities will generate novel research ideas and proposals fully exploiting the potential of multi- and interdisciplinary training, bringing together different biomedical disciplines with engineering and physical scientists. This influx of new ideas should be beneficial for the academics already working in the area who may in turn be prompted to explore new directions and for other researchers in EPS who may see the potential of their own work for addressing some aspects of AMR.

Societal and Economic Impact

The fundamental driving force of the programme is the imperative to address AMR and to find innovative methods to at least reduce if not eliminate its effects. As such there is expected to be a clear societal benefit for any successful research that grows out of the network since that research will be by definition aimed directly at a major societal problem of growing importance. Finding means to reduce the impact of AMR either by developing new microbicides or by finding methods to reduce infection to begin with will have an increasing significance for the health and wellbeing of the nation as the existing antibiotics become increasing ineffective against common infections. Of course the unchecked rise of AMR is expected have major adverse economic consequences for healthcare systems in the UK and worldwide. However, effective measures to reduce the effect of AMR could provide a huge economic opportunity since this is a global healthcare problem and any effective measures would have access to very large international markets.

Publications

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De Baróid ÁT (2017) Optimization of singlet oxygen production from photosensitizer-incorporated, medically relevant hydrogels. in Journal of biomedical materials research. Part B, Applied biomaterials

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Flynn P (2018) Understanding plasma biofilm interactions for controlling infection and virulence in Journal of Physics D: Applied Physics

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Jiang L (2018) Nanodelivery strategies for the treatment of multidrug-resistant bacterial infections. in Journal of interdisciplinary nanomedicine

 
Description We have made advances in our preliminary studies on detection of infection and light-activated, AMA-releasing microbeads (LAMBs) have already led to results which have been followed up by a fully-funded PhD studentship and award of funding for a Proof of Concept study. Similarly we have obtained a significant >£900k grant on the use of microneedles to deliver antibacterials. More broadly, the objective of "bridging the gap" by building links between the engineering & physical sciences and life sciences has been extremely successful. Specifically, the QUBAN network was used as the basis to create a new a virtual research centre (MATCH) which was formed in response to a university call for proposals to set up high impact interdisciplinary research groups which would receive preferential University financial and administrative support. MATCH (formed autimn 2016) is now the primary research grouping of 45 academic PIs from the Schools of Chemistry & Chemical Engineering, Pharmacy and Aeronautical & Mechanical Engineering and the School of Medicine, Dentistry and Biomedical Science, the majority of whom are also members of the QUBAN network. It has guaranteed funding of £3M over the first 3 years to provide equipment, studentships and administrative/technical support. The fact that cross-disciplinary collaborations were already established through QUBAN also influenced the research direction of the MATCH, through its core themes, most obviously that 6 of the 11 PhD studentships funded in the first year were interdisciplinary projects based on aspects of AMR. This group has an active programme of lectures/workshops/mixers, the most recent of which attracted ca. 80 PhD students to a minicoference/poster sesson. Again illustration of the University's long term support fro this area was the School of Chemistry and Chemical Engineering's strategic appointment of two new permanent lecturers both of whom have strong interests in antimicrobials and will again work with other members of MATCH on addressing problems in AMR.
Since last year, the MATCH group has continued to research in AMR and more broadly across a range of areas of healthcare. It has been reviewed by QUB and was commended for many aspects of its work and continued support from the university was recommended by the review panel who included the PVC for Research and other senior members of the university. Ongoing impact on research within QUB is evidenced by additional EPSRC grants in the area of AMR and adoption of Healthcare as one of the two research themes within the School of Chemistry and Chemical Engineering at QUB.
Exploitation Route The scientific results are still at an early stage so the most appropriate route will be through further acedmic research before any commercial activity could be envisgaed.
The MATCH grouping will be a strong driver for collaborative research between Engineering, Physical Sciences and Life Sciences for the foreseeable future. The target is for this group to grow to an international centre in healthcare materials. The latest development has been formation of the Health Innovation Research Alliance Northern Ireland (HIRANI) which is an alliance of universities, health organisations and other industry bodies, established to drive and support ambitious growth in Northern Ireland's Life & Health Sciences sector. Work of this group was interrupted by the urgent needs created by the Covid pandemic but is expected to resume summer 2021.
Sectors Agriculture, Food and Drink,Chemicals,Environment,Healthcare,Pharmaceuticals and Medical Biotechnology

 
Description The formation of the MATCH interdisciplinary research grouping in QUB has been a major impact. Although this is an academic grouping it is very much aimed at translating fundamental research through to clinical application so the impact has been to move the focus of many researchers into developing real world applications. We expect eventual clinical impact and applications of materials in healthcare to follow but the lead time on such developments is much longer than is typically the case in engineering and physical sciences. We expect that the newly formed Health Innovation Research Alliance Northern Ireland (HIRANI) will be important enabler for this translation into clinical settings. Work of this group was interrupted by the Covid pandemic but is expected to resume summer 2021. Current academic plan includes new grouping, provisionally named CATCH, which will include a broader range of researchers than MATCH but continue to bring together researchers from across faculties of Engineering & Physical Science and Medicine, Health & Life Sciences.
First Year Of Impact 2017
Sector Chemicals,Healthcare,Pharmaceuticals and Medical Biotechnology
Impact Types Economic

 
Description 3D Printed, Stand-alone, Colourimetric Indicator Strip (3DCIS) for Non-Invasive, On-demand Chronic Wound Monitoring
Amount £690,273 (GBP)
Funding ID EP/T007575/1 
Organisation Engineering and Physical Sciences Research Council (EPSRC) 
Sector Public
Country United Kingdom
Start 01/2020 
End 12/2022
 
Description A platform for reduction of incidence of ventilator-associated pneumonia through modified PVC biomaterials
Amount £446,937 (GBP)
Funding ID EP/R043345/1 
Organisation Engineering and Physical Sciences Research Council (EPSRC) 
Sector Public
Country United Kingdom
Start 08/2018 
End 08/2021
 
Description Binary Response Sunburn Warning Indicator
Amount £112,408 (GBP)
Organisation Invest Northern Ireland 
Sector Public
Country United Kingdom
Start 10/2018 
End 09/2021
 
Description Formation of MATCH cross-faculty research centre at QUB
Amount £3,000,000 (GBP)
Organisation Queen's University 
Sector Academic/University
Country Canada
Start 09/2016 
End 09/2022
 
Description Synthesis of novel brevicidine and laterocidine analogues active against multi-drug-resistant Gram-negative bacteria
Amount £391,380 (GBP)
Funding ID EP/T01783X/1 
Organisation Engineering and Physical Sciences Research Council (EPSRC) 
Sector Public
Country United Kingdom
Start 05/2020 
End 03/2027
 
Description Wellcome Trust (Collaborative Awards in Science)
Amount £907,730 (GBP)
Organisation Wellcome Trust 
Sector Charity/Non Profit
Country United Kingdom
Start 04/2018 
End 03/2022
 
Description invest NI Proof of concept
Amount £112,457 (GBP)
Organisation Invest Northern Ireland 
Sector Public
Country United Kingdom
Start 09/2017 
End 08/2021
 
Description Chemistry at Work 
Form Of Engagement Activity Participation in an activity, workshop or similar
Part Of Official Scheme? No
Geographic Reach National
Primary Audience Schools
Results and Impact Approximately 1200 14-16 year old pupils from schools in N.I. attended over the course of 2 days. The event is run as a series of lecture/demonstrations to groups of up to 30 pupils, which they visit in turn, this has been found to be superior to a simple exhibition-type format. The QUBAN presentation was a demonstration lecture which, in addition to explaining the background to antimicrobial resistance and the scale of the problem, showed the ease with which infection can be transmiited using fluorescent powder and UV torches, had pupils use water pistols to remove model bacteria from surfaces that were either uncoated or carried a biofilm, demonstrated photocatalytic destruction of bacteria using photoindicator pens and gave then low adhesion superhydrophobic surfaces to handle and test. The demonstrations were presented by 3x postgraduates from the School of Chemistry and 3 x from the Centre for Infection and Immunity who worked in shifts throughout the 2 days. Postgraduates from both centres contributed to the preparation of the material and trained each other on the aspects of the presentation which would be unfamiliar to those who came from the other Centre.
This was an excellent opportunity to reach a very large number of young people in an interesting and informative way. The Informal feedback from the pupils was very positive, both about the interactive nature of the demonstration and their interest in the fundamental science.
Year(s) Of Engagement Activity 2016,2017,2018,2019
URL https://www.qub.ac.uk/schools/SchoolofChemistryandChemicalEngineering/BusinessCareers/Outreach/Chemi...