Although scientists knew one atom thick, two-dimensional crystal graphene existed, no-one had figured out how to extract it from graphite, until Professor Geim and Professor Novoselov’s groundbreaking work in 91ֱ�� in 2004.

Geim and Novoselov frequently held ‘Friday night experiments’, where they would play around with ideas and experiments that weren’t necessarily linked to their usual research. It was through these experiments that the two first isolated graphene, by using sticky tape to peel off thin flakes of graphite, ushering in a new era of material science.

Their seminal paper ‘, has since been cited over 40,000 times, making it one of the most highly referenced scientific papers of all time.

What Andre and Kostya had achieved was a profound breakthrough, which would not only earn the pair a Nobel Prize in 2010 but would revolutionise the scientific world.

The vast number of products, processes and industries for which graphene could significantly impact all stem from its extraordinary properties. No other material has the breadth of superlatives that graphene boasts:

• It is many times stronger than steel, yet incredibly lightweight and flexible
• It is electrically and thermally conductive but also transparent
• It is the world’s first two-dimensional material and is one million times thinner than the diameter of a single human hair.

It’s areas for application are endless: transport, medicine, electronics, energy, defence, desalination, are all being transformed by graphene research.

In biomedical technology, graphene’s unique properties allow for groundbreaking biomedical applications, such as targeted drug delivery and DIY health-testing kits. In sport, graphene-enhanced running shoes deliver more grip, durability and 25% greater energy return than standard running trainers – as well as the world’s first .

Speaking at the , hosted by The University of Manchester, Professor Sir Andre Geim said: “If you have an electric car, graphene is there. If you are talking about flexible, transparent and wearable electronics, graphene-like materials have a good chance of being there. Graphene is also in lithium ion batteries as it improves these batteries by 1 or 2 per cent.”

The excitement, interest and ambition surrounding the material has created a ‘graphene economy’, which is increasingly driven by the challenge to tackle climate change, and for global economies to achieve zero carbon.

At the heart of this economy is The University of Manchester, which has built a model research and innovation community, with graphene at its core. The enables academics and their industrial partners to work together on new applications of graphene and other 2D materials, while the accelerates lab-market development, supporting more than 50 spin-outs and numerous new technologies.

Professor James Baker,  CEO of Graphene@91ֱ�� said: “As we enter the 20^th anniversary since the first discovery of graphene, we are now seeing a real ‘tipping point’ in the commercialisation of products and applications, with many products now in the market or close to entering. We are also witnessing a whole new eco-system of businesses starting to scale up their products and applications, many of which are based in 91ֱ��."

What about the next 20 years?

The next 20 years promise even greater discoveries and The University of Manchester remains at the forefront of exploring the limitless graphene yields.

Currently, researchers working with INBRAIN Neuroelectronics, with funding from the European Commission’s Graphene Flagship, are developing brain implants from graphene which could enable precision surgery for diseases such as cancer.

Researchers have also developed wearable sensors, based on a 2D material called hexagonal boron nitride (h-BN), which have the potential to change the way respiratory health is monitored.

As for sustainability, Dr Qian Yang is using nanocapillaries made from graphene that could lead to the development of a brand-new form of , while others are looking into Graphene’s potential in grid applications and storing wind or solar power. Graphene is also being used to reinforce , to reduce cement use – one of the leading causes of global carbon dioxide.

Newly-appointed Royal Academy of Engineering Research Chair, Professor Rahul Nair, is investigating graphene-based membranes that can be used as water filters and could transform access to clean drinking water.

Speaking at the World Academic Summit, Professor Sir Andre Geim said: “Thousands of people are trying to understand how it works. I would not be surprised if graphene gets another Nobel prize or two given there are so many people who believe in this area of research.”

Discover more

To hear Andre’s story, including how he and Kostya discovered the wonder material in a Friday night lab session, visit: 

To find out more about The University of Manchester’s work on graphene, visit: 

To discover our world-leading research centre, or commercial accelerator, visit

To find out how we’re training the next generation of 2D material scientists and engineers, visit:

• .

That’s why Masood Entrepreneurship Centre (MEC) created ‘Key 5’—a new flexible, interactive learning experience designed to equip students with essential entrepreneurial skills for any career path, whether you're interested in starting your own business or excelling within an organisation.

Key 5 delivers valuable, real-world skills in an interactive and flexible format. Even if you don’t yet know the career you want, you’ll gain skills you can use right now - from acing your next interview to leading group projects like a boss. 

What is ‘Key 5’?

Key 5 is an innovative microlearning suite - five bite-sized modules you can finish in just 10-15 minutes each:

• Effective and Powerful Communication: Learn how to express ideas clearly and persuasively.
• Networking: Discover how to build connections that can open doors to new opportunities.
• Market Awareness: Understand the environment you’re operating in and how to respond to it.
• Opportunity Recognition: Develop the ability to spot potential and act on it.
• Building Confidence: Strengthen your ability to lead, present, and excel in group settings.

What Makes It Fun?

What sets Key 5 apart is its scenario-based learning design. You'll engage in dynamic, interactive challenges - negotiating with aliens, slaying dragons, and inventing world-changing products in a futuristic multiverse – all while boosting your skills.

Learn in Your Own Time, No Pressure

You can do it all on your own schedule, wherever you are. Do you have 15 minutes between lectures? Perhaps you’re waiting for the bus? You can access Key 5 anywhere, anytime, on any device. And it’s risk-free – no need to worry about assessments or grades, learn without pressure.

Who Should Try It?

Whether you are new to entrepreneurship or a seasoned pro, Key 5 will help you sharpen your skills, but we expect first- and second-year undergraduates will benefit most.

See what it's like! Find out more about Key 5 with our short video:

Ready to Start? 

Are you ready to start your journey? Jump into Key 5 and start building the skills that will make you stand out in any career.

Let us know what you think! Leaving feedback at the end of each module helps us know what works for you so we can design future learning experiences.

Find out more about the Masood Entrepreneurship Centre (MEC) .

The Moon, like the Earth, has been bombarded by asteroids and comets since its formation, leaving behind craters and basins. However, the exact timing and intensity of most of these events, notably the oldest and largest basin on the Moon, have remained unclear to scientists—until now.

By analysing a lunar meteorite known as Northwest Africa 2995, a team led by scientists at The University of Manchester have investigated the age of the formation of the massive South Pole-Aitken (SPA) basin – the Moon’s oldest confirmed impact site, which is located on the far side of the Moon and stretches more than 2,000 kilometres.

The proposed date is around 120 million years earlier than what is believed to be the most intense period of impact bombardment on the Moon.

The finding, published today in , provides a clearer picture of the Moon’s early impact history.

, Royal Society University Research Fellow at The University of Manchester, said: “Over many years scientists across the globe have been studying rocks collected during the Apollo, Luna, and Chang’e 5 missions, as well as lunar meteorites, and have built up a picture of when these impact events occurred.

“For several decades there has been general agreement that the most intense period of impact bombardment was concentrated between 4.2-3.8 billion years ago - in the first half a billion years of the Moon’s history.  But now, constraining the age of the South-Pole Aitken basin to 120 million years earlier weakens the argument for this narrow period of impact bombardment on the Moon and instead indicates there was a more gradual process of impacts over a longer period.”

The Northwest Africa 2995 meteorite was found in Algeria in 2005 and is what geologists refer to as a regolith breccia, which means it contains fragments of different rock types that were once a lunar soil and have been fused together by the heat and pressure involved in an impact event.

By analysing the amount of uranium and lead found in a range of mineral and rock fragments within the meteorite, the researchers were able to determine the materials dated back to between 4.32 and 4.33 billion years ago.

The team, which included The University of Manchester, the Institute of Geology and Geophysics – Chinese Academy of Sciences in Beijing, the Swedish Museum of Natural History in Stockholm, and the University of Portsmouth, then compared these results to data collected by NASA’s Lunar Prospector mission, which orbited the Moon studying its surface composition between 1998 and 1999. The comparison revealed many chemical similarities between the meteorite and the rocks within the SPA basin, confirming their link and enabling the new age estimate.

, Senior Lecturer at The University of Manchester, said: “The implications of our findings reach far beyond the Moon. We know that the Earth and the Moon likely experienced similar impacts during their early history, but rock records from the Earth have been lost. We can use what we have learnt about the Moon to provide us with clues about the conditions on Earth during the same period of time.”

This new understanding opens new avenues for future lunar exploration.

from The University of Manchester, said: “The proposed ancient 4.32 billion year old age of the South Pole-Aiken basin now needs to be tested by sample return missions collecting rocks from known localities within the crater itself.”

The ��ö����ö�� is tangible proof of a mathematical theory, developed by Gábor Domokos and Péter Várkonyi from the Budapest University Technology and Economics, about the stability of solid objects. The ��ö����ö�� is a three-dimensional, homogenous, convex object that has exactly one stable and one unstable equilibrium, or balance point; if you put it down on a flat surface it will reorient itself until it reaches the one stable equilibrium point.

The mathematicians have chosen to gift one of the ��ö����ö�� pieces to the University with the unique serial number 1824, in honour of the University’s 200^th anniversary which is being celebrated throughout 2024. ��ö����ö�� 1824 is sponsored by Mr Ottó Albrecht, who has funded the ��ö����ö�� donation programme for many years. The piece stands at 180mm tall and is made from plexiglass. It will be exhibited in the Mathematics Department located in the Alan Turing Building.

��ö����ö�� 1824 was presented to the University at a ceremony on 10 October, by H.E. Ferenc Kumin, ambassador of Hungary, and was accepted by , Vice-President and Dean of the Faculty of Science and Engineering and , Head of the Department of Mathematics. The ambassador also had the chance to have lunch with Hungarian staff and students at the University and took a tour of the robotics lab.

Since its discovery in 2007, many ��ö����ö�� pieces have been donated to renowned institutions worldwide, including Harvard University, the Beijing Institute of Mathematical Sciences, the Pompidou Centre and The University of Tokyo.

There are few ��ö����ö�� pieces in the UK; The University of Oxford, The University of Cambridge, Windsor Castle, The Crown Estate, University College London and Academia Europaea are the only institutions which currently have a ��ö����ö�� on display. The University of Manchester’s ��ö����ö�� 1824 is the first ��ö����ö�� to be gifted to an institution in the North of England.

Professor Andrew Hazel, Head of the Department of Mathematics, said: “It is somewhat unusual to have a mathematical object whose proof of existence can be realised in such a tangible way. The ��ö����ö�� is visually interesting and stimulates discussion between staff, students and visitors.”

Although discovered in Hungary, the ��ö����ö�� has connections to The University of Manchester. Some of the early research on the statics of solid bodies was pioneered by Sir Horace Lamb, who studied Mathematics at Owens College and was a Professor of Physics at the University between 1885 and 1920. Lamb wrote the influential textbook Statics, Including Hydrostatics and the Elements of the Theory of Elasticity, which describes methods that can be adapted to analyse the stability of the ��ö����ö��.

The ��ö����ö�� is also relevant for current research being undertaken at the University. Researchers working on granular flows and particle dynamics used the ��ö����ö�� as a test shape for computer codes, to verify the stability calculations used to analyse piles of grains.

H.E. Ferenc Kumin, ambassador of Hungary, said: “It is with great pride that we present the G1824, a remarkable embodiment of Hungarian ingenuity and problem-solving, in honour of The University of Manchester's foundation. More than a scientific marvel, for us, Professor Domokos' ��ö����ö�� represents Hungarian thinking and creative problem solving.”

History of the ��ö����ö��

In geometry, a body with a single stable resting position is called monostatic; the term mono-monostatic has been coined to describe a body which additionally has only one unstable point of balance.

The weight of the ��ö����ö�� is distributed evenly; and no simpler homogeneous shape exists with these properties. In fact, it is not possible for a convex, homogenous, solid three-dimensional object to have fewer than two equilibria.

The question of whether it is possible to construct a three-dimensional body which is mono-monostatic, homogenous and convex, was posed by Russian mathematician Vladimir Igorevich Arnold at a conference in 1995, in Hamburg.

In 2007, Gábor Domokos and Péter Várkonyi proved Arnold’s conjecture correct and created the first physical example, which became known as the ��ö����ö��. The discovered mono-monostatic shape is the most sphere-like shape, apart from the sphere itself; its name is a diminutive form of ��ö����, meaning ‘sphere’ in Hungarian.

��ö����ö��-like shapes can be seen in nature. Biological evolution developed a similar shape in the form of the shell of the , which self-rights when turned upside down. Domokos and Várkonyi spent time studying tortoises in Hungary, attempting to explain the shape and function of their shells.

After its creation in 2007, a series of individual ��ö����ö�� models were launched. Each individual ��ö����ö�� carries its own unique serial number, between 1 and the current year, and has only been produced once.

The first individually numbered ��ö����ö�� model (��ö����ö�� 001) was presented by Domokos and Várkonyi as a gift to Vladimir Igorevich Arnold on his 70^th birthday in 2007; Professor Arnold later donated ��ö����ö�� 001 to the Steklov Institute of Mathematics, where it is currently on exhibit.

Once a year, during a IEC General Meeting, stakeholders from around the world come together to decide on current issues, as well as future directions and strategies for the IEC. In 2024, the IEC General Meeting is hosted by British Standards Institution (BSI) in Edinburgh from 21 to 25 October which marks the first time in 35 years this event will be happening in the UK. 

As the Head of the UK delegation of IEC Technical Committee 119 – “Printed Electronics” which is responsible for the standardization in the field of printed electronics for terminology, materials, processes, equipment, products and health/safety/environment, Leszek will lead the delegation with the aim to advise and guide the standardisation work in the strategic for the UK area of sustainable printed electronics. 

Leszek said, "I am delighted to be appointed as Head of UK delegation of IEC Technical Committee 119 – ‘Printed Electronics’. This will allow me to represent the UK interests on the international stage, as well as shape and lead the work of the committee.” 

This appointment not only confirms that Leszek is nationally and internationally recognized as a highly competent, first-rate engineering expert, which strongly evidences a higher-level of achievement, but also reinforces the international reputation of the University of Manchester as a leader in social responsibility. 

Standards guide and normalize almost all areas of our lives. International Electrotechnical Commission (IEC) standards provide instructions, guidelines, rules or definitions that are then used to design, manufacture, install, test and certify, maintain and repair electrical and electronic devices and systems. The IEC’s mission is to achieve worldwide use of IEC International Standards and Conformity Assessment Systems to ensure the safety, efficiency, reliability and interoperability of electrical, electronic and information technologies, to enhance international trade, facilitate broad electricity access and enable a more sustainable world. 
 

Alzheimer's is marked by a loss of brain cells, whereas glioblastoma is responsible for rapid cell growth. The unexpected relationship between the two, known as ‘inverse comorbidity’, suggests that there might be a deeper biological connection we don’t yet understand. If we could work out what that connection is, we might be able to design vital new treatments. 

Now, a 91ֱ�� team are on a mission to discover the answer and make a positive difference, through what they’ve called the NanoNeuroOmics Project. 
 

The challenge they face 

Both Alzheimer's disease and glioblastoma are often quite well-advanced in a person, by the time they’re diagnosed. The current methods we use for this, such as PET or MRI scans, still aren’t very effective at early detection. What we really need are simple blood tests that can spot changes early on. 

In both conditions, the blood-brain barrier (which normally protects our brain), becomes more permeable – meaning it’s possible to detect disease-related molecules in the blood. This could in turn help us to identify people who were more at risk, and to monitor responses to different types of treatment. 

However, it won’t be easy. In current blood tests, when we’re looking for certain proteins – key indicators of disease – they’re often drowned out by a range of other proteins. Developing a way to spot those blood-based ‘biomarkers’ for brain health, which can easily be used in clinical practice, would be a key next step. 

How 91ֱ�� innovation could make a difference 

By merging expertise in nanotechnology, protein analysis, and blood biomarker discovery, the NanoOmics lab are aiming to: 

1. Identify new blood proteins(biomarkers) that could help in the early diagnosis and monitoring of the Alzheimer's and glioblastoma. 
2. To understand more about the link that Alzheimer's and glioblastoma share. 

The NanoOmics lab is looking to identify these unique biomarkers by tracking protein changes in blood and the brain over time, and across different stages of both diseases. They will use nanotechnology to detect these 'protein markers,' employing nanoparticles to isolate them from the multitude of other molecules present in the blood. With their ‘Nanoomics’ technology, these nanoparticles capture disease-related molecules, acting almost like tiny ’fishing nets’. Using this approach, the team can filter out a huge number of other proteins that are currently getting in the way. In turn, by analysing what they’ve captured, our researchers are aiming to identify new biomarkers that are currently undetectable by state-of-the art protein analysis approaches. 

Hope for the future 

To achieve this, Group Leader Dr Marilena Hadjidemetriou and her NanoOmics team have been combining long-term studies in lab models, with validation studies using biofluids obtained from human patients. 

The aim isn’t only to search for new blood biomarkers, but to gain further insight into how neurological conditions work, so that we can connect changes we see in our blood with changes that can happen in our brain. 

Their approach is multidisciplinary, working with experts across both nanotechnology and omics sciences, to improve early disease detection and hopefully develop personalised treatment for future patients. 

NanoNeuroOmics represents a significant step forward in the quest to understand, detect and treat complex neurological diseases. 

About Dr Marilena Hadjidemetriou 

Dr Hadjidemetriou is the NanoOmics Group Leader, and a Lecturer in Nanomedicine in 91ֱ��’s School of Biological Sciences. 

She joined the Nanomedicine Lab at the University of Manchester as a Marie Curie Early-Stage Fellow and full-time PhD student, working on the development of the nanoparticle protein corona as a tool for cancer diagnostics. 

After her PhD, Dr Hadjidemetriou was granted a postdoctoral fellowship by the Medical Research Council, to focus on the discovery of novel biomarkers in Alzheimer’s disease. She was also awarded a 91ֱ�� Molecular Pathology Innovation Centre Pump Priming Grant and the CRUK Pioneer Award, to work on the nanoparticle-enabled discovery of blood biomarkers for a variety of pathologies. 

Now leading the NanoOmics lab Dr Hadjidemetriou is aiming to develop nanotechnology platforms that explore disease pathways and uncover molecular biomarkers. 

Dr Hadjidemetriou’s recent research includes: 

To discuss this research, contact Dr Marilena Hadjidemetriou at marilena.hadjidemetriou@manchester.ac.uk 
 

Organised by , the workshop provided an engaging platform for sharing the latest advancements in SF₆ leak mitigation, lifecycle management of SF₆ alternatives, retrofill replacement interventions, and new applications for high-voltage systems. The event featured insightful presentations from industry leaders, including Hitachi Energy, GE Vernova and Siemens Energy, and concluded with closing remarks from NGET.

Attendees were offered technical tours of the National Graphene Institute and High Voltage Laboratory, showcasing state-of-the-art research facilities. The event included representatives from network utilities across Great Britain, Ireland and France, fostering collaboration and knowledge exchange.

The workshop demonstrated the commitment of key industry players to advance SF₆ alternatives and pave the way for more sustainable power systems in the future.

Led by Professor Deborah Greaves at the University of Plymouth, the Supergen ORE Hub includes co-directors from a consortium of ten universities. From The University of Manchester, serves as a Co-Director and is an Early Career Researcher (ECR) Co-Lead.

The report, aimed at researchers, industry, policymakers, and the public, summarises the current impacts of climate change and the UK’s progress in reducing carbon emissions. It outlines offshore renewable energy deployment pathways needed for a just, sustainable and secure energy transition, with 2040 identified as a key milestone towards the UK 2050 Net Zero goals.

Key findings from the report include:

• Achieving 100 GW of offshore wind energy by 2040 is critical, requiring a nearly seven times increase in capacity. Radical innovation is essential to optimise and scale up growth.
• Tidal stream energy has the potential to grow alongside offshore wind and could reach over 11 GW of capacity in UK waters. Rapid progress is required, to deliver the EU SET Plan target of 6 GW deployment of tidal stream by 2050.
• Wave energy has significant potential, with an estimated exploitable resource of 25 GW in the UK. Deployment of 12 GW of wave and tidal stream by 2050 could add £40 billion GVA to the UK economy and reduce energy balancing costs by £1 billion annually. Investment in innovation over the next decade is crucial to achieving this potential.

Professor Tim Stallard said: “The ORE Outlook 2040 report highlights the high potential for Offshore Renewable Energy sources to contribute to the UK meeting its Net Zero goals. The growth required cannot be realised by upscaling current approaches alone and urgent action is needed to accelerate innovation and deployment.”

The report also explores ORE development through lenses of planning and consenting, people, supply chain, and infrastructure and grid. Investment in research and innovation is highlighted as crucial to de-risking new technologies, reducing costs, improving performance and ensuring the UK retains its technological leadership on the global stage.

The Supergen ORE Hub, established by the Engineering and Physical Sciences Research Council (EPSRC), aims to deliver strategic and coordinated research on sustainable power generation and supply.

The Astrophysics Centre for Multi-messenger Studies in Europe (ACME), funded by the European Union and coordinated by Centre national de la recherche scientifique (CNRS), is an ambitious initiative that is designed to provide seamless access to instruments, data and expertise, focussing on the new science of multi-messenger astrophysics.

Multi-messenger astrophysics is a relatively new but rapidly growing field that uses information from various cosmic signals, such as photons, gravitational waves, neutrinos, and cosmic rays, to study some of the most extreme and mysterious phenomena in the Universe like  black hole mergers, neutron star collisions, and supernova explosions. Combining data from multiple sources – or messengers – offers a more comprehensive understanding than traditional astronomy alone.

The ACME will bring together 40 leading institutions from 15 countries, including The University of Manchester’s and aims to forge a basis for strengthened long-term collaboration between these research infrastructures irrespective of location and level-up access opportunities across Europe and beyond.

The , which The University of Manchester operates on behalf of the Science and Technology Facilities Council, and expertise from the will play a crucial role in facilitating these goals.

Professor Rob Beswick from The University of Manchester, who co-leads ACME’s transnational access programme, said: “ACME is an incredibly exciting opportunity. This project will bring together a wide range of world-class researchers and astronomical research infrastructure spanning astroparticle and gravitational wave facilities along the entire electromagnetic spectrum, with a common focus to advance multi-messenger astrophysics,” 

The AMCE project will be coordinated by Prof Antoine Kouchner (CNRS/Université Paris Cite) and Paolo D’Avanzo (INAF). A key element of the project is to develop six new multi-messenger Centres of Excellence across Europe, which will serve as hubs of expertise for all researchers in all aspects of direct and multi-messenger science programmes, providing support from proposals to data analysis and science interpretation.

, who leads JBCA’s involvement in these new Centres of Excellence says “The ACME project will bring many infrastructures and groups together across Europe in a unique collaboration to provide the astronomy and astroparticle communities unprecedented access to data, workflows and expertise. ACME will revolutionise how researchers in multi-messenger fields work and collaborate in the future.”

ACME officially launched in September 2024 at a kick-off meeting held in Paris.

The Centre for Innovative Recycling and Circular Economy (CIRCLE) UK team will be led by Dr , Reader is Sustainable Biotechnology at the 91ֱ�� Institute of Biotechnology, alongside a team of international academics. Also part of the project are Professors and , and Drs , and Micaela Chacon.

CIRCLE aims to address the global challenge of anthropogenic waste by closing the loop and using it as a feedstock for the chemicals industry. Much of the waste produced by society is a rich source of carbon, a building block for many important chemicals and materials found in everyday products such as plastics, personal care products, and pharmaceuticals. CIRCLE will identify and employ novel biotechnological processes to break down this waste into its chemical components and avoid the need for virgin petrochemical feedstocks.

This project will bring together academic expertise from across the globe, including the US, Canada and South Korea.

The 2024 Global Centres awards focus on advancing bioeconomy research to solve global challenges, whether by increasing crop resilience, converting plant matter or other biomass into fuel, or paving the way for biofoundries to scale-up applications of biotechnology for societal benefit.  The programme supports holistic, multidisciplinary projects that bring together international teams and scientific disciplines, including education and social sciences, necessary to achieve use-inspired outcomes. All Global Centres will integrate public engagement and workforce development, paying close attention to impacts on communities.

“Alongside replacing fossil fuels, there is an urgent need to replace petrochemical industrial feedstocks across a wide range of sectors. This is a global challenge that requires global solutions and UKRI is delighted to be partnering in the NSF Global Centres 2024 programme to meet this need”, said UKRI CEO, Professor Dame Ottoline Leyser. “The announcement today will be at the forefront of real-world solutions, from improved recycling to new bioplastics, building a sustainable circular economy. The centres will create the global networks and skills needed to drive a thriving bioeconomy benefitting all.”

R2I is a bespoke entrepreneurship training programme for final-year PhD students, PDRAs and early-career researchers from across all faculties with ambitions to develop commercial ventures or to create impact from their academic studies.

The programme includes a series of interactive personal and professional development sessions, which introduce the concept of commercialisation, equipping researchers with strategies to take ideas forward and discover new pathways to funding.

Read more about the researchers recently supported to further their ideas.

and register now to attend one of our short  to hear more about the programme and how to apply.

Key Dates

Cohort 1:

• Introductory Sessions: In person and online across 16^th and 17^th October 
• Applications Open: 17th October
• Application Deadline: 28th October
• Programme: 14^th November - 19^th February 2025

Cohort 2:

• Information Sessions: March 2025
• Programme: April – June 2025

The MEC Researcher to Innovator (R2I) programme is supported by the University’s Innovation Academy. The Innovation Academy is a pan University initiative and joint venture between the , the  and the Business Engagement and Knowledge Exchange team, bringing together knowledge, expertise and routes to facilitate the commercialisation of research.

Paint - an economically and environmentally critical material 

In the UK, over 10,000 people work in the coatings industry, which contributes over £11 billion to the economy, and supports the manufacturing and construction sectors worth around £150 billion. 

Corrosion damage costs the UK 2-3% of its Gross National Product each year (about £60 billion in 2016). Protective coatings like paints help prevent corrosion but are complex to formulate, meaning new product developments is slow. 

With a growing demand for sustainable materials that extend the lifespan of infrastructure like wind turbines, it's crucial to understand how these coatings work to get new, better performing and more sustainable products to market. 

91ֱ��’s corrosion research expertise 

AkzoNobel and The University of Manchester are collaborating to address this through their research. 

Claudio Di Lullo, Manager of AkzoNobel’s Substrate Protection Expertise Centre, explains: “About 12 years ago, we set up a partnership with The University of Manchester because we recognise that corrosion is one of the big challenges we have to face. We make paint, we develop paint. We understand the practical applications and what’s needed to make it perform. 

“What the University brings is the ability to characterise, analyse and understand some of the mechanisms. They can do deeper science that’s an essential part of understanding what’s going on. We get fresh insights that will help us to develop the next generation of paint.” 

Understanding the fundamentals of how paint works

Building on this partnership, 91ֱ�� and AzkoNobel developed ‘Sustainable Coatings by Rational Design’ (SusCoRD), a five-year interdisciplinary EPSRC Prosperity Partnership, that brings together a critical mass of expertise – spanning academic knowledge from the universities of Manchester, Sheffield, and Liverpool capabilities – to understand how paint works.

In an industry-first, the partnership looked to match a detailed scientific understanding of the mechanisms of coatings failure with state-of-the-art machine learning. The aim was to deliver a framework for developing more sustainable protective coatings and nanocomposite materials using digital design. This would help enable industry to replace the current trial-and-error and test new, sustainable materials, accelerating the formulation of new products.

Uniting corrosion science with machine learning

Working across four specific workstreams, the teams drove discoveries across two main areas: 
analysis characterisation of coatings in the substrate, the polymer and interfaces; and digital technology, specifically predictive approaches, modelling and simulation, with the aim to ultimately producing digital twins.

91ֱ�� led on corrosion protection, with Sheffield and Liverpool focusing on polymer interface and machine learning, respectively. Their work focuses on:

1. Predictive Design and Testing: By undertaking a review of AkzoNobel’s historic corrosion test data, researchers were able to find the best formulations for corrosion protection. Applying machine learning models, they were then able predict and optimise these formulations, creating models that could successfully identify new, effective combinations. To support this, complementary tools were developed to automatically interpret electrochemical data, improving accuracy and efficiency. 
2. Polymers and interfaces: The team studied how small molecules like water and solvents interact with polymer surfaces with 91ֱ�� leading on advanced microscopy, to explore how polymers and metals bond. Key results included the discovery that that metal-polymer binding has a much larger influence in measurements than previously thought – a critical insight in the drive to create more high-performance, eco-friendly high solid and water-borne coating systems. 
3. Coatings and substrates: Using a combination of analytical electron microscopy and X-Ray CT, researchers were able to characterise the microstructural evolution in polyester powder coating, revealing different stages in the degradation process. By identifying and mitigating microstructural weak points, finding ways to control microstructure – which previously reduced the efficacy of coatings –, and by understanding the key properties affecting performance, the researchers have advanced insight to inform the way durable coatings are formulated. 
4. Simulation and modelling: . By creating and studying digital models, the team was able to interrogate experimental results and test hypothesis when physical experiments were unable to provide relevant information. These models created ranged from atomic-level analsyis of the polymer/substrate interface, to understanding how a flaw in the coating impacts an electrochemical cell. 

Creating the sustainable paints of the future

The findings of the five-year project can now be used to inform higher-technology readiness level research, which in turn will help unlock ways to making more sustainable paint.

Claudio Di Lullo explains: “At AkzoNobel, we recognise our paint has a carbon footprint contribution and we've set the ambitious target in 2030 of having a 50% reduction in the carbon footprint across the whole value chain.

“The potential impacts of this project, for us as a company are to produce new generation products that perform better and are more sustainable, and for us to do it quicker. Machine learning gives us the angle to accelerate our new product development.”

Professor Stuart Lyon, from The University of Manchester adds: “There are two aspects of sustainability. The manufacture of the paint needs to be sustainable, but also its materials need to be sustainable. And that essentially means making it last longer, so we don’t have to repaint assets like wind turbines, mid-life, which is hugely expensive.

“The work we’ve done so far has involved using all these analytical tools to explore the science behind how paint works and to create opportunities to make paints differently. The next stage is to use that information to develop tools that make paint in different ways, using different materials, which are perhaps more sustainable – which last longer, which create assets that have a much greater lifetime.”

For more information visit the

To discuss this project further, or to explore future collaboration contact Xiaorong Zhou, Professor of Corrosion Science and Engineering or Dr Jane Deakin, SusCoRD project manager.

Related papers: 

• Manipulating transport paths of inhibitor pigments in organic coating by addition of other pigments. 

Prosperity Partnerships 
Prosperity Partnerships are collaborative research programmes funded jointly by businesses and the UK government through the Engineering and Physical Sciences Research Council (EPSRC) and other UKRI councils. 
Prosperity Partnerships are an opportunity for businesses and their existing academic partners to co-create and co-deliver a business-led programme of research activity arising from a clear industrial need. 
To explore a Prosperity Partnership with 91ֱ��, contact our Business Engagement team at collaborate@manchester.ac.uk

The Albany M4 project, led by Professor Christophe Gaudin and Dr. Hugh Wolgamot, and coordinated by Dr. Wiebke Eberling of the University of Western Australia, aims to explore the potential of wave energy to support local decarbonisation efforts along Australia’s Great Southern coast. The launch is a quarter-scale demonstration model designed specifically for this application and will absorb 1-10kW in the target sea-states. Sensors on the model will provide real-time data on energy production and performance.

The M4 project is fully open-access with all data collected during the device’s deployment being made available to scientists, developers, and the public. By making the performance data accessible to all, the project aims to drive further innovation in renewable energy.

The M4, or Moored Multi-Mode Multibody, is an innovative surface-riding wave energy converter consisting of multiple floats, connected by beams, in a 1-2-1 float arrangement for the Albany tests. The middle floats each support a hinge, and relative rotation between the bow and stern floats, due to the movement of the waves, creates power in a generator. It uses a single mooring point that allows the M4 to naturally turn and face the waves for better energy capture.

The M4 highlights 91ֱ��’s leading role in renewable energy innovation and has been developed over the past decade with support from the Engineering and Physical Sciences Research Council (EPSRC) and the European Union. British Maritime Technology (BMT) was responsible for the structural and mooring design for Albany, while the power take-off (PTO) design was led by Dr Judith Apsley from The University of Manchester’s Department of Electrical and Electronic Engineering, and further developed with the support of Dr Nuwantha Fernando at RMIT University, Melbourne.

The launch, funded with 4.8 million AUD from the WA state government and the Blue Economy Cooporative Research Centre, with similar in-kind contributions, also showcases the wider benefits of emerging renewable technologies, with six local contractors and manufacturers contributing to the building, assembling, deploying, and decommissioning of the device in Albany.

The University of Manchester’s Hydrodynamics Lab played a key role in the development of the M4. Located in the heart of Manchester, this state-of-the-art facility allows researchers to simulate ocean conditions and test renewable energy designs. 

Professor Peter Stansby highlighted its importance, stating: “The Hydrodynamics Lab is vital for advancing renewable energy research. While computational modelling provides valuable predictions, experimental validation is essential for understanding and optimising complex systems.”

For more information about The University of Manchester’s contributions to offshore renewable energy systems visit our webpage.

The new study, published in today, reveals that under specific conditions, where waves meet each other from different directions, waves can reach heights four times steeper than what was once thought possible.

It has often been assumed that waves are two-dimensional and understanding of wave breaking to-date has been based on these assumptions. Yet in the ocean, waves can travel in many directions and rarely fit this simplified model.

New insights by a team of researchers, including Dr Samuel Draycott from The University of Manchester and Dr Mark McAllister from the University of Oxford, reveal that three-dimensional waves, which have more complex, multidirectional movements, can be twice as steep before breaking compared to conventional two-dimensional waves, and even more surprisingly, continue to grow even steeper even after breaking has occurred.

The findings could have implications for how offshore structures are designed, weather forecasting and climate modelling, while also affecting our fundamental understanding of several ocean processes.

Professor Ton van den Bremer, a researcher from TU Delft, says the phenomenon is unprecedented: “Once a conventional wave breaks, it forms a white cap, and there is no way back. But when a wave with a high directional spreading breaks, it can keep growing.”

Three-dimensional waves occur due to waves propagating in different directions. The extreme form of this is when wave systems are “crossing”, which occurs in situations where wave system meet or where winds suddenly change direction, such as during a hurricane. The more spread out the directions of these waves, the larger the resulting wave can become.

,  Senior Lecturer in Ocean Engineering at The University of Manchester, said: “We show that in these directional conditions, waves can far exceed the commonly assumed upper limit before they break. Unlike unidirectional (2D) waves, multidirectional waves can become twice as large before they break.”

Professor Frederic Dias of University College Dublin and ENS Paris-Saclay, added: “Whether we want it or not, water waves are more often three-dimensional than two-dimensional in the real world. In 3D, there are more ways in which waves can break.”

Current design and safety features of marine structures are based on a standard 2D wave model and the findings could suggest a review of these structures to account for the more complex and extreme behaviour of 3D waves.

Dr Mark McAllister from the University of Oxford and Wood Thilsted Partners said: “The three-dimensionality of waves is often overlooked in the design of offshore wind turbines and other marine structures in general, our findings suggest that this could lead to underestimation of extreme wave heights and potentially designs that are less reliable.”

The findings could also impact our fundamental understanding of several ocean processes.

Dr Draycott said: “Wave breaking plays a pivotal role in air-sea exchange including the absorption of C0₂, whilst also affecting the transport of particulate matter in the oceans including phytoplankton and microplastics.”

The project follows on previous research, , to fully for the first time ever at the the at the University of Edinburgh. Now, the team have developed a new 3D wave measurement technique to study breaking waves more closely.

The FloWave wave basin is a circular multidirectional wave and current simulation tank, which is uniquely suited to the generation of waves from multiple directions.  

Dr Thomas Davey, Principal Experimental Officer of FloWave, at the University of Edinburgh, said: “Creating the complexities of real-world sea states at laboratory scale is central to the mission of FloWave. This work takes this to a new level by using the multi-directional capabilities of the wave basin to isolate these important wave breaking behaviours.”

Dr Ross Calvert from the University of Edinburgh added: “This is the first time we've been able to measure wave heights at such high spatial resolution over such a big area, giving us a much more detailed understanding of complex wave breaking behaviour."

The study was conducted by a research consortium including experts from The University of Manchester, University of Oxford, University of Edinburgh, University College Dublin, ENS Paris-Saclay and TU Delft.

The University of Manchester is proud to share that Dr Bovinille Anye Cho has been announced as a recipient of the prestigious (CDF), a programme aimed at developing underrepresentation in UK STEM academia.

Dr Anye Cho is one of eight outstanding researchers selected in the first cohort of CDFs, who are undertaking groundbreaking research that can benefit society and further human understanding.

His research centres on revolutionising bioenergy processes to become more environmentally sustainable, in particular, anaerobic digestion (AD), which is a process that transforms agricultural and food waste into a clean energy source known as biomethane.

Although an effective way to manage waste, this process also creates a significant amount of carbon dioxide (CO₂) and impurities, which contributes to global warming.

Dr Anye Cho is exploring the use of microalgae, which can be used to convert CO₂ into valuable food supplements and healthcare products through photosynthesis. In the UK, where tons of agricultural and food waste are generated, incorporating algae technology into the exiting AD facilities could increase the production of clean energy, while yielding high-value bio renewables that are currently heavily dependent on imports.

Dr Anye Cho’s project aims to employ advanced mathematical modelling and Artificial Intelligence methods to ensure that facilities of various sizes can operate effectively for long durations, enabling stability and boosting the production of clean energy and valuable products. His fellowship will be based in the Department of Chemical Engineering, where he has served as a Research Associate since March 2023. He earned his PhD from the same department in January 2023, completing it in an impressive three years while publishing over 11 original scientific papers.

The Career Development Fellowships are currently running as a pilot programme with researchers from Black and Mixed Black heritage. The CDFs offer four years of funding (up to £690,000), mentoring and support to kickstart the careers of researchers from underrepresented groups.

The scheme was launched in response to 11 years of higher education data which showed Black heritage researchers leave academia at higher rates than those from other groups. The impact of this higher attrition rate is pronounced at senior levels of academic careers.

Sir Adrian Smith, President of the Royal Society, said: “We need an academic system where talented researchers can build a career, whatever their background. But we know that is not the case in the UK today – particularly for researchers of Black heritage.

“The variety and quality of research being undertaken by this first cohort of Royal Society Career Development Fellows suggests a bright future ahead if we can ensure more outstanding researchers develop their talents and follow their research passions.

“I hope this pilot and the support it offers can be a launchpad to achieve that.”

In addition to their fellowship funding and support from the Royal Society, the award holders will have access to networking and mentoring opportunities supported by the (BBSTEM) network.

If the pilot is shown to be effective, the CDF programme could be expanded to include researchers from other groups, where the data shows there is persistent underrepresentation.

Dr Mark Richards, Senior Teaching Fellow at Imperial College London and a member of the Royal Society’s Equality, Diversity and Inclusion Subcommittee who participated in the shortlisting and assessment panels for the CDFs, said:

“There are many reasons scientists from marginalised groups may leave academia, often it’s because they’re looking ahead and not seeing themselves reflected in those spaces.

“This scheme, which offers funding, mentoring and recognition from a body like the Royal Society can be the endorsement to propel these eight excellent academics to go on and grow their own research groups.

Overtime I hope it can become self-sustaining, creating a network of scientists in universities, and beyond, who can help raise aspirations and open doors.”

• Applications for the second year of Career Development Fellowships are due to open on 24 September 2024.
• Find out more about the Royal Society Career Development Fellowships .
• Read the Royal Society’s CDFs press release .

These findings have the potential to accelerate the discovery of novel, more efficient cryoprotectants - and may also allow for the repurposing of molecules already known to slow or stop ice growth.

Professor Matthew Gibson, from 91ֱ�� Institute of Biotechnology at The University of Manchester, added: “My team has spent more than a decade studying how ice-binding proteins, found in polar fish, can interact with ice crystals, and we’ve been developing new molecules and materials that mimic their activity. This has been a slow process, but collaborating with Professor Sosso has revolutionized our approach. The results of the computer model were astonishing, identifying active molecules I never would have chosen, even with my years of expertise. This truly demonstrates the power of machine learning.”

The full paper can be read .

Sugars play a crucial role in human health and disease, far beyond being just an energy source. Complex sugars called glycans coat all our cells and are essential for healthy function. However, these sugars are often hijacked by pathogens such as influenza, Covid-19, and cholera to infect us.

One big problem in treating and diagnosing diseases and infections is that the same glycan can bind to many different proteins, making it hard to understand exactly what’s happening in the body and has made it difficult to develop precise medical tests and treatments.

In a breakthrough, published in the journal , a collaboration of academic and industry experts in Europe, including from The University of Manchester and the University of Leeds, have found a way to create unnatural sugars that could block the pathogens.

The finding offers a promising avenue to new drugs and could also open doors in diagnostics by ‘capturing’ the pathogens or their toxins.

, a researcher from at The University of Manchester, said “During the Covid-19 pandemic, our team introduced the first lateral flow tests which used sugars instead of antibodies as the ‘recognition unit’. But the limit is always how specific and selective these are due to the promiscuity of natural sugars. We can now integrate these fluoro-sugars into our biosensing platforms with the aim of having cheap, rapid, and thermally stable diagnostics suitable for low resource environments.”

Professor Bruce Turnbull, a lead author of the paper from the School of Chemistry and Astbury Centre for Structural Molecular Biology at The University of Leeds, said “Glycans that are really important for our immune systems, and other biological processes that keep us healthy, are also exploited by viruses and toxins to get into our cells. Our work is allowing us to understand how proteins from humans and pathogens have different ways of interacting with the same glycan. This will help us make diagnostics and drugs that can distinguish between human and pathogen proteins.”

The researchers used a combination of enzymes and chemical synthesis to edit the structure of 150 sugars by adding fluorine atoms. Fluorine is very small meaning that the sugars keep their same 3D shape, but the fluorines interfere with how proteins bind them.

, a researcher from 91ֱ�� Institute of Biotechnology at The University of Manchester, said “One of the key technologies used in this work is biocatalysis, which uses enzymes to produce the very complex and diverse sugars needed for the library. Biocatalysis dramatically speeds up the synthetic effort required and is a much more green and sustainable method for producing the fluorinated probes that are required.”

They found that some of the sugars they prepared could be used to detect the cholera toxin – a harmful protein produced by bacteria – meaning they could be used in simple, low-cost tests, similar to lateral flow tests, widely used for pregnancy testing and during the COVID-19 pandemic.

Dr Kristian Hollie, who led production of the fluoro-sugar library at the University of Leeds, said: “We used enzymes to rapidly assemble fluoro-sugar building blocks to make 150 different versions of a biologically important glycan. We were surprised to find how well natural enzymes work with these chemically modified sugars, which makes it a really effective strategy for discovering molecules that can bind selectively.”

The study provides evidence that the artificial “fluoro-sugars” can be used to fine-tune pathogen or biomarker recognition or even to discover new drugs. They also offer an alternative to antibodies in low-cost diagnostics, which do not require animal tests to discover and are heat stable.

The research team included researchers from eight different universities, including 91ֱ��, Imperial College London, Leeds, Warwick, Southampton, York, Bristol, and Ghent University in Belgium.

This ambitious project funded through Strategic Innovation Fund (SIF) Beta Phase, a competition ran by UK Research and Innovation (UKRI) and Ofgem, is part of an initiative designed to significantly reduce greenhouse gas emissions from the UK’s power grid. 

With £2.4 million in new funding for The University of Manchester, the research will build on ’s work for SF₆-free retrofill intervention techniques that could supplant SF₆ without having to replace or significantly modify existing SF₆-designed equipment. These investigations, in partnership with NGET, were named ‘Best Innovation in Net Zero and Sustainability’ at the 2022’s E&T Innovation Awards.  

This project will be led by Dr Tony Chen, Reader in High Voltage Engineering in 91ֱ��’s Department of Electrical and Electronic Engineering. He will be joined by , Professor in Chemical Engineering, and , Professor in Artificial Intelligence.  

The impact of this project is expected to be wide-ranging and could lead to significant reduction in greenhouse gas emissions. 

The project will further develop aspects of SF₆ management based on findings in its alpha phase and will explore the challenges and opportunities in SF₆ replacement and management.  

The projects areas of focus include comparing different intervention strategies, developing energy-efficient methods for disposing SF₆, modelling of SF₆ leakage from switchgear equipment to better inform asset management strategy, and studying alternative gas blends that could replace SF₆ in the longer term through retrofill intervention. These efforts are expected to lead to significant technological advancements, providing solutions that could be applied to other sectors that use SF₆, such as high-voltage particle accelerators and future electrified transportation systems. 

This initiative could make a substantial contribution to the UK’s carbon reduction targets. If successful, its strategies for extending the lifespan of industry assets would also ensure a more reliable operation, lead to lower energy bills for consumers, and reduce the overall costs of running the national electricity network.  

By working with policymakers, industry leaders, and international standards bodies, the 91ֱ�� team are aiming to shape global regulations, continuing to position the UK as a leader in sustainable energy solutions. Their vital research could make a significant contribution to world-wide efforts to cut greenhouse gas emissions from the power sector, helping to close the gap between an unsustainable present and a more sustainable future. 

A leading nanomedicine researcher at The University of Manchester has secured a €1.5m (£1.3m) European Research Council (ERC) Starting Grant to push forward pioneering research on Alzheimer’s disease and glioblastoma.

The five-year project, NanoNeuroOmics, aims to combine breakthroughs in nanotechnology, protein analysis, and blood biomarker discovery to make advances in two key areas.

First, the team led by will explore the use of nanoparticles to enrich and isolate brain-disease specific protein biomarkers in blood. These discoveries could pave the way for simple, reliable blood tests that diagnose Alzheimer’s and glioblastoma in their early stages.

Second, the research will investigate the phenomenon of “inverse comorbidity,” which suggests that having one of these conditions may reduce the risk of developing the other. Dr. Hadjidemetriou and her team will explore this surprising relationship to uncover any deeper biological connection that could lead to new treatment pathways.

Building on her 2021 research, where Dr. Hadjidemetriou developed a nanoparticle-enabled technology to detect early signs of neurodegeneration in blood, this project has the potential to transform how these brain diseases are diagnosed and treated.

Dr. Hadjidemetriou’s previous work involved using nano-sized particles, known as liposomes, to "fish" disease-specific proteins from the blood. This breakthrough enabled her team to discover proteins directly linked to neurodegeneration processes in the brain, among thousands of other blood-circulating molecules. In animal models of Alzheimer’s, this nano-tool successfully captured hundreds of neurodegeneration-associated proteins. Once retrieved from the bloodstream, the molecular signatures on the surface of these proteins were analysed, offering a clearer picture of the disease at a molecular level.

Now, Dr. Hadjidemetriou's team will evolve this expertise to identify highly specific biomarkers by tracking protein changes in both blood and brain over time and across different stages of Alzheimer's and glioblastoma. By working with different nanomaterials, they hope to isolate these key protein markers from the complex mix of molecules in the blood.

The  NanoNeuroOmics project’s multidisciplinary approach brings together experts in nanotechnology and omics sciences to develop methods for detecting and potentially treating these diseases with greater precision. Research will be conducted at The University of Manchester’s , a cutting-edge facility dedicated to advancing nanoscale technologies. The Centre's focus spans multiple fields, including omics, neurology, therapeutics, and materials science.

Dr. Hadjidemetriou’s team is also part of Manchester’s vibrant 2D materials science community, home to the discovery of graphene 20 years ago, continuing the university’s legacy of scientific innovation.

Lithium-ion batteries, which power everything from smartphones and laptops to electric vehicles, store energy through a process known as ion intercalation. This involves lithium ions slipping between layers of graphite - a material traditionally used in battery anodes, when a battery is charged. The more lithium ions that can be inserted and later extracted, the more energy the battery can store and release. While this process is well-known, the microscopic details have remained unclear. The 91ֱ�� team’s discovery sheds new light on these details by focusing on bilayer graphene, the smallest possible battery anode material, consisting of just two atomic layers of carbon.

In their experiments, the researchers replaced the typical graphite anode with bilayer graphene and observed the behaviour of lithium ions during the intercalation process. Surprisingly, they found that lithium ions do not intercalate between the two layers all at once or in a random fashion. Instead, the process unfolds in four distinct stages, with lithium ions arranging themselves in an orderly manner at each stage. Each stage involves the formation of increasingly dense hexagonal lattices of lithium ions.

, who led the research team, commented, "the discovery of 'in-plane staging' was completely unexpected. It revealed a much greater level of cooperation between the lattice of lithium ions and the crystal lattice of graphene than previously thought. This understanding of the intercalation process at the atomic level opens up new avenues for optimising lithium-ion batteries and possibly exploring new materials for enhanced energy storage."

The study also revealed that bilayer graphene, while offering new insights, has a lower lithium storage capacity compared to traditional graphite. This is due to a less effective screening of interactions between positively charged lithium ions, leading to stronger repulsion and causing the ions to remain further apart. While this suggests that bilayer graphene may not offer higher storage capacity than bulk graphite, the discovery of its unique intercalation process is a key step forward. It also hints at the potential use of atomically thin metals to enhance the screening effect and possibly improve storage capacity in the future.

This pioneering research not only deepens our understanding of lithium-ion intercalation but also lays the groundwork for the development of more efficient and sustainable energy storage solutions. As the demand for better batteries continues to grow, the findings in this research could play a key role in shaping the next generation of energy storage technologies.

The (NGI) is a world-leading graphene and 2D material centre, focussed on fundamental research. Based at The University of Manchester, where graphene was first isolated in 2004 by Professors Sir Andre Geim and Sir Kostya Novoselov, it is home to leaders in their field – a community of research specialists delivering transformative discovery. This expertise is matched by £13m leading-edge facilities, such as the largest class 5 and 6 cleanrooms in global academia, which gives the NGI the capabilities to advance underpinning industrial applications in key areas including: composites, functional membranes, energy, membranes for green hydrogen, ultra-high vacuum 2D materials, nanomedicine, 2D based printed electronics, and characterisation.

The substantial investment from the , marks the fourth phase of The’s (SSI) mission to transform research culture by establishing the principle that reliable, reproducible, and reusable software is necessary across all research disciplines.

The SSI, which is based at the universities of Manchester, Edinburgh, and Southampton, was established in 2010 as the world’s first organisation dedicated to improving software in research, with The University of Manchester playing a central role in its success.

The next phase will focus on tackling critical challenges in research software, including environmental sustainability, equality, diversity, inclusion, and accessibility, as well as the rising interest in Artificial Intelligence (AI) and Machine Learning.

The next phase of the programme will run from 2024 to 2028 and will be led by the .

It is fourth time the SSI has been entrusted with public funding to carry out its mission of transforming research culture by establishing the principle that reliable, reproducible, and reusable software is necessary across all research disciplines.

It achieves this by working with, and investing in, individuals and organisations from across the sector. The SSI’s “collaborate, not compete” ethos has allowed research software to move towards becoming a first-class citizen in the research landscape.

Christopher Smith, Executive Chair  of the Arts and Humanities Research Council, said: “Software plays a fundamental role in all disciplines of research. That’s why it’s so important that we invest in supporting the development of research software that is top quality, meets the needs of our research communities, is environmentally sustainable and is ready for the future. 

“This record £10.2 million investment is part of the UKRI Digital Research Infrastructure programme’s ongoing investment in evolving existing capability and supporting new infrastructure. It reflects the SSI’s strong track record and the importance of its work for the future of research. I am delighted that AHRC will be hosting this investment for all UKRI communities for the next four years.”

Neil Chue Hong, SSI Director and Professor of Research Software Policy and Practice, added: “Every modern societal advance is driven by research which relies on software. From weather forecasting to whether we can build new narratives for the next decade, it’s important that we provide equitable access to the digital tools and skills enabling this. This grant - which will see the SSI into its 18th year - enables us to work with the research community to build capability and expertise, ensuring a sustainable future for research software.”

The SSI was founded in 2010 thanks to funding from the (EPSRC). In 2016, the (ESRC) and the (BBSRC) joined EPSRC to further invest and help continue the work of the SSI throughout its second phase. The third phase was funded by all UKRI research councils.

Adding graphene to concrete can reduce CO₂ emissions by using less material without sacrificing strength. The consortium, led by Cemex and partnered with Galliford Try, Sika, Northumbrian Water, and Graphene@91ֱ��, will conduct research to develop and market more eco-friendly construction materials.

Working with partners representing the whole supply chain, application experts from Graphene Engineering Innovation Centre (GEIC), part of Graphene@91ֱ�� will share their expertise and access to cutting edge equipment to support the consortium in designing, developing, scaling, and ‘de-risking’ the next generation of innovative construction materials. Led by Dr Lisa Scullion, who manages the GEIC’s concrete application division, the team will conduct research into the formulation and testing of an integrated micronized limestone and graphene-based admixtures.

Graphene@91ֱ�� has demonstrated through previous collaborations with industry partners that adding graphene effectively enhances the mechanical properties of concrete, reducing the amount of material needed while maintaining early age strength development.

The aim on this project is to understand the benefits of uniting graphene with micronized limestone as a supplementary cementitious material.  The use of micronized limestone reduces the need for Ordinary Portland Cement, which is responsible for a significant portion of concrete's carbon emissions. It’s fine particle size and high surface area, also contributes to improved particle packing and hydration reactions in the concrete mix, enhancing strength and durability.

By using the materials together, the consortium hopes to further lower carbon concrete without compromising on strength, curing time, or the need to amend traditional production methods. The GEIC will formulate the mix, while the actual concrete pour will be at a Northumbria Water installation.

James Baker, CEO at Graphene@91ֱ��, added: This partnership showcases the power of our lab-to-market innovation model, where we collaborate with industry and its supply chain to scale and commercialise graphene and share the remarkable properties of this 2D (2 Dimensional) material. The outcomes of the project will foster engagement between innovation projects and end users, demonstrating market demand, reducing commercial risks, encouraging investment, and speeding up adoption. The potential for graphene-enhanced concrete to significantly reduce CO₂ emissions during manufacturing marks a major advancement in sustainable construction.”

Mike Higgins, National Technical Manager for Cemex UK, commented that “This partnership is a great example of experts working across the construction sector to drive innovative new approaches that aim to bring about additional benefits for the built environment, as it continues its journey towards a more sustainable future.”

Higgins goes on to add that, “The commercial potential of this innovation is substantial, given the urgent need for more sustainable building materials in the face of global climate challenges. This project encompasses a comprehensive plan from laboratory development to real-world application, ensuring the solution is not only technically viable but also commercially viable.”

The study, published in by scientists at The University of Manchester and led by the National Oceanography Centre (NOC), has found that currents sped up, slowed down, changed direction, and sometimes reversed direction completely, depending on the varying and uneven surfaces and features found on the ocean floor.

Previous models suggested that these currents would be continuous and steady. These findings will help scientists to understand the deep-sea pathways of nutrients that sustain deep-sea ecosystems, as well as assessing where microplastics and other pollutants accumulate in the ocean.

By better understanding how deep-sea currents interact with the seafloor, scientists can now more accurately interpret the deposits they leave behind. Those deposits act as long-term recorders of past climate change and can provide important clues about the potential impacts of future ocean changes. 

The seafloor is the final destination for particles such as sand, mud, organic carbon that provides food for seafloor organisms, and even pollutants. Accumulations of these particles in the deep sea are used to reconstruct past climates, natural hazards and ocean conditions. This provides valuable archives of climate change that extends far beyond historical records.

The lead scientist on the project, Dr Mike Clare of NOC, said: “It is important to understand the behaviour and pathways of currents that operate in the deep sea, to determine pathways of natural and human-made particles. This information helps identify where pollution is coming from, which ecosystems it will interact with, and how to make sense of the records preserved in deposits.

“However, there have been very few direct measurements made of currents that flow across the seafloor in deep waters. Most are made high above the seafloor, over short timescales, and only at individual locations. Until now we have not understood how dynamic seafloor currents can be in the deep sea.”

The new study, which involved researchers from the UK, Canada, Germany and Italy, analysed data from an extensive array of sensors to determine the variability in seafloor currents over four years. Thirty-four deep sea moorings were deployed in up to 2.5 km water depths, equipped with high-frequency Acoustic Doppler Current Profilers - likened to an underwater speed camera that measures seafloor currents.

The study’s lead author, Dr Lewis Bailey, formerly of NOC and now at University of Calgary, said “The ocean bottom currents offshore Mozambique are far more variable than we expected. Just like currents in the upper ocean, their intensity changes between seasons and can even flip backwards and forwards over the course of several hours.”

from The University of Manchester, and a co-author of the study, added: “Seeing how these currents behave is a bit like observing the weather in 91ֱ�� - always changing and often surprising. But observing change in the deep sea is really challenging and, until now, we have had a poor understanding of what background conditions are like in the deep-sea.”

Professor Elda Miramontes from the University of Bremen, also a co-author of the study, said: “These are the first measurements of deep-sea currents across such a large area, long duration and so close to the seafloor. This makes them extremely valuable as they will help improve our models for reconstructing past changes related to climate change in the ocean.”

Dr Mike Clare of NOC, added: “The deep sea can be extremely dynamic and this study underlines the importance of sustained observations, which provide critical information on understanding the ocean. More detailed observations are critical for understanding the important role bottom currents play in transporting sediment, carbon and pollutants across our planet.”

The full study “Highly variable deep-sea currents over tidal and seasonal timescales” was published in Nature Geoscience: .

Antibiotics are given to kill bad bacteria, however with just one mutation a bacteria can evolve to become resistant to that antibiotic, making common infections potentially fatal.

The new research, published today in the journal , used high-performance computing to simulate more than 8,000 years of bacterial evolution, allowing scientists to predict mechanisms that control mutation rates. They then made more than 15,000 cultures of E. coli in lab conditions to test their predictions - that’s so many that if you lined up all of the bacteria in this study, they would stretch 860,000km, or wrap around the Earth more than 20 times!

The tests revealed that bacteria living in a lowly populated community are more prone to developing antibiotic resistance due to a naturally occurring DNA-damaging chemical, peroxide. In crowded environments, where cells are more densely packed, bacteria work collectively to detoxify peroxide, reducing the likelihood of mutations that lead to antibiotic resistance.

The finding could help develop "anti-evolution drugs" to preserve antibiotic effectiveness by limiting the mutation rates in bacteria.

Lead researcher from The University of Manchester, said: "Antibiotic resistance presents an existential challenge to human health. Bacteria rapidly evolve resistance to the antibiotic drugs we use to treat infections, while new drugs aren’t being developed fast enough to keep up.

“If we can’t keep antibiotics working, routine surgery could be a life-or-death encounter, with common infections becoming untreatable.

“By understanding the environmental conditions that influence mutation rates, we can develop strategies to safeguard antibiotic effectiveness. Our study shows that bacterial mutation rates are not fixed and can be manipulated by altering their surroundings, which is vital on our journey to combat antibiotic resistance."

Peroxide, a chemical found in many environments, is key to this process. When E. coli populations become denser, they work together to lower peroxide levels, protecting their DNA from damage and reducing mutation rates. The study showed that genetically modified E. coli that is unable to break down peroxide had the same mutation rates, no matter the population size. However, when helper cells that could break down peroxide were added, the mutation rate in these genetically modified E. coli decreased.

The research builds on previous findings by group, which indicated that denser bacterial populations experience lower mutation rates. The current study uncovers the specific mechanism behind this phenomenon, highlighting the role of collective detoxification in controlling mutation rates.

The research team, part of the Microbial Evolution Research in 91ֱ�� (MERMan) collective, conducted this extensive study with contributions from researchers at all career stages. The lab work was primarily carried out by a PhD student, alongside six undergraduate and master's students, under the guidance of four lab group leaders.

The breakthrough, published in the journal , could significantly improve accessibility of essential protein-based drugs in developing countries where cold storage infrastructure may be lacking, helping efforts to diagnose and treat more people with serious health conditions.

The researchers, from the Universities of Manchester, Glasgow and Warwick, have designed a hydrogel – a material mostly made of water – that stabilises proteins, protecting its properties and functionality at temperatures as high as 50°C.

The technology keeps proteins so stable that they can even be sent through the post with no loss of effectiveness, opening up new possibilities for more affordable, less energy-intensive methods of keeping patients and clinics supplied with vital treatments.

Protein therapeutics are used to treat a range of conditions, from cancer to diabetes and most recently to treat obesity and play a vital role in modern medicine and biotechnology. However, keeping them stable and safe for storage and transportation is a challenge. They must be kept cold to prevent any deterioration, using significant amounts of energy and limiting equitable distribution in developing countries.

The medicines also often include additives – called excipients – which must be safe for the drug and its recipients limiting material options.

The findings could have major implications for the diagnostics and pharmaceutical industries.

, is one of the paper’s corresponding authors. He said: “In the early days of the Covid vaccine rollout, there was a lot of attention given in the news media to the challenges of transporting and storing the vaccines, and how medical staff had to race to put them in people’s arms quickly after thawing.  

“The technology we’ve developed marks a significant advance in overcoming the challenges of the existing ‘cold chain’ which delivers therapeutic proteins to patients. The results of our tests have very encouraging results, going far beyond current hydrogel storage techniques’ abilities to withstand heat and vibration. That could help create much more robust delivery systems in the future, which require much less careful handling and temperature management.”

The hydrogel is built from a material called a low molecular weight gelator (LMWG), which forms a three-dimensional network of long, stiff fibres. When proteins are added to the hydrogel, they become trapped in the spaces between the fibres, where they are unable to mix and aggregate – the process which limits or prevents their effectiveness as medicines.

The unique mechanical properties of the gel’s network of fibres, which are stiff but also brittle, ensures the easy release of a pure protein. When the protein-storing gel is stored in an ordinary syringe fitted with a special filter, pushing down on the plunger provides enough pressure to break the network of fibres, releasing the protein. The protein then passes cleanly through the filter and out the tip of the syringe alongside a buffer material, leaving the gel behind.

In the paper, the researchers show how the hydrogel works to store two valuable proteins: insulin, used to treat diabetes, and beta-galactosidase, an enzyme with numerous applications in biotechnology and life sciences.

Ordinarily, insulin must be kept cold and still, as heating or shaking can prevent it from being an effective treatment. The team tested the effectiveness of their hydrogel suspension for insulin by warming samples to 25°C and rotating them at 600 revolutions per minute, a strain test far beyond any real-world scenario. Once the tests were complete, the team were able to recover the entire volume of insulin from the hydrogel, showing that it had been protected from its rough treatment.

The team then tested samples of beta-galactosidase in the hydrogel, which was stored at a temperature of 50°C for seven days, a level of heat exceeding any realistic temperature for real-world transport. Once the enzyme was extracted from the hydrogel, the team found it retained 97% of its function compared against a fresh sample stored at normal temperature.

A third test saw the team put samples of proteins suspended in hydrogel into the post, where they spent two days in transit between locations. Once the sample arrived at its destination, the team’s analysis showed that the gels’ structures remained intact and the proteins had been entirely prevented from aggregating.

is the paper’s other corresponding author. He said: “Delivering and storing proteins intact is crucial for many areas of biotechnology, diagnostics and therapies. Recently, it has emerged that hydrogels can be used to prevent protein aggregation, which allows them to be kept at room temperature, or warmer. However, separating the hydrogel components from the protein or proving that they are safe to consume is not always easy. Our breakthrough eliminates this barrier and allows us to store and distribute proteins at room temperature, free from any additives, which is a really exciting prospect.”

The team are now exploring commercial opportunities for this patent-pending technology as well as further demonstrating its applicability. 

Researchers from the University of East Anglia and Diamond Light Source Ltd also contributed to the research. The team’s paper, titled ‘Mechanical release of homogenous proteins from supramolecular gels’, is published in Nature.

The research was supported by funding from the European Union’s Horizon 2020 programme, the European Research Council, the Royal Society, the Engineering and Physical Sciences Research Council (EPSRC), the University of Glasgow and UK Research and Innovation (UKRI).

Today, UK Research and Innovation (UKRI), has announced £34 million investment in a ground-breaking project, BioFAIR, which aims to overhaul research data management across the nation.

The project, initially proposed by the ELIXIR-UK community, which is co-led by Professor Carole Goble from the University of Manchester, aims to establish a cohesive, UK-wide digital research infrastructure that bridges current gaps between researchers, digital research technical professionals, existing institutional digital research infrastructures, and the funder-community partnership.

It will deliver a step change in the UK’s capability to translate existing and future life science data assets into world leading research in response to some of society’s most pressing challenges.

ELIXIR-UK is the UK Node of ELIXIR, a European project to integrate life sciences data across the continent with the aim of facilitating the linking of data worldwide. Professor Goble has been co-leading on the business case and investment activity for the project in partnership with the Earlham Institute and UKRI over the last six years and has played an instrumental role in securing the award for the UK. She is also leading the architecture requirements development of the BioFAIR Commons.

BioFAIR will be a catalyst for innovation and discovery and over its five-year life span will:

• accelerate the adoption of findable, accessible, interoperable and reusable (FAIR) data principles across the UK life sciences, making it more useful and valuable to researchers than ever before
• unify the UK’s currently fragmented digital research landscape, fostering unprecedented opportunities for collaboration and coordination among the national life sciences community
• break down barriers to democratise data accessibility, giving UK researchers the resources and autonomy needed for innovation and discovery to flourish
• coordinate and deliver extensive training and support for practitioners at all levels, building critical workforce capacity and securing the UK’s position as a global leader in life sciences

Fundamental to the BioFAIR concept are its four key capabilities. Each will be assembled from existing data tools and services developed and deployed by the UK and international life science research communities.

Collectively, the four capabilities signify an important ethos of one community driving and sharing responsibility for the management and use of national assets to maximise accessibility, usability and impact.

The data commons will catalogue sources of existing datasets, making them easily accessible to life science researchers. It will support FAIR data management throughout the data lifecycle, from the point of collection to deposition and, crucially, to reuse.

The method commons will enable the collaborative use of shared computational workflows with a national workflow capability. It will feature a national repository of trusted and curated data methods and workflows, contributed by the life sciences research community, supporting reproducible data analytics and advancing

The community centre will provide a focal point for sharing expertise, best practice and troubleshooting within disciplines.

The knowledge centre will enable those driving the collection and curation of existing knowledge resources and training materials to advance best practice in research data management.

Together, the community and knowledge centres will create a collaborative environment that supports more effective dissemination of research data management knowledge and skills across the life sciences research community.

Mission critical 

Put simply, BioFAIR is mission critical to the future of UK life sciences research. At its core the project will deliver major efficiency gains by streamlining research data management.

By better connecting research teams and championing the reuse of data and methods, BioFAIR will help accelerate research, leading to faster scientific breakthroughs as a result.

But BioFAIR adds significantly more value than efficiency alone. It will:

• pioneer innovation, with its state-of-the-art tools and methods paving the way for future scientific success
• future-proof the UK life sciences ecosystem by integrating advanced computational tools and methods to set the stage for new innovations that can be translated and commercialised for maximum impact
• support economic growth and prosperity by upskilling the life sciences research data management workforce and enabling new opportunities for the UK’s scientific leadership

Community driven from the outset, the concept of BioFAIR originated as an idea submitted to BBSRC’s by the ELIXIR-UK team.

This collaborative ethos remains at the heart of BioFAIR, complemented by additional UK and international initiatives to ensure best practices are shared and interoperability across disciplines is promoted.

BioFAIR’s success heavily relies upon the combined ability and proven track record of the UK life science research community in developing and operating research data management tools and services. 

As the awarded hosts of BioFAIR’s coordinating hub, the Earlham Institute’s strengths will be complemented by a skilled and distributed network of UK partners responsible for project leadership and delivery.

Dr Sarah Perkins, Executive Director for Strategic Planning, Evidence and Engagement at BBSRC and the UKRI Senior Responsible Officer for BioFAIR, said: “Digital research infrastructure has fast become as critical to UK bioscience as physical infrastructure. 

“The BioFAIR project will provide the backbone for ground-breaking research, enabling researchers to tackle key societal challenges head-on. By democratising access to crucial data and methods, BioFAIR ensures that the UK life science community can innovate faster and more effectively than ever before.”

Gerry Reilly, Interim Director of BioFAIR, said: “Our vision is to create a powerful federated digital research infrastructure that revolutionises UK life science research. By leveraging established best practices and capabilities, we will build a national platform that ensures the effective adoption of FAIR principles and drives efficiency across all UK life science research institutions. 

“Developed by the research community for the research community, BioFAIR will transform the future face of the UK life sciences.”

or email your questions to info@biofair.uk.

Peptides are comprised of small chains of amino acids, which are also the building blocks of proteins. Peptides play a crucial role in our bodies and are used in many medicines to fight diseases such as cancer, diabetes, and infections. They are also used as vaccines, nanomaterials and in many other applications. However, making peptides in the lab is currently a complicated process involving chemical synthesis, which produces a lot of harmful waste that is damaging to the environment.

In a new breakthrough, published in the journal , 91ֱ�� scientists have discovered a new family of ligase enzymes – a type of molecular glue that can help assemble short peptide sequences more simply and robustly, yielding significantly higher quantities of peptides compared to conventional methods.

The breakthrough could revolutionise the production of treatments for cancer and other serious illnesses, offering a more effective and environmentally friendly method of production.

For many years, scientists have been working on new ways to produce peptides. Most existing techniques rely on complex and heavily protected amino acid precursors, toxic chemical reagents, and harmful volatile organic solvents, generating large amounts of hazardous waste. The current methods also incur high costs, and are difficult to scale up, resulting in limited and expensive supplies of important peptide medicines.

The team in 91ֱ�� searched for new ligase enzymes involved in the biological processes that assemble natural peptides in simple bacteria. They successfully isolated and characterised these ligases and tested them in reactions with a wide range of amino acid precursors. By analysing the sequences of the bacterial ligase enzymes, the team identified many other clusters of ligases likely involved in other peptide pathways.

The study provides a blueprint for how peptides, including important medicines, can be made in the future.

, who also worked on the project said, “The ligases we discovered provide a very clean and efficient way to produce peptides. By searching through available genome sequence data, we have found many types of related ligase enzymes. We are confident that using these ligases we will be able to assemble longer peptides for a range of other therapeutic applications.”

Following the discovery, the team will now optimise the new ligase enzymes, to improve their output for larger scale peptide synthesis. They have also established collaborations with a number of the top pharmaceutical companies to help with rolling out the new ligase enzyme technologies for manufacturing future peptide therapeutics.

This prestigious award is designed to support students, postdoctoral researchers, recent graduates, and encourage new student cohorts to engage with MEC, in launching new businesses that involve graphene or other 2D materials. It’s all about sparking innovation and making a real impact in the commercial world, turning groundbreaking research into real, game-changing solutions for the future.

With awards of £50,000 and £20,000, we’re excited to celebrate the individuals or teams who showed how their graphene-related technology can be turned into a business. The applications were judged based on how solid their plans were for creating a new business related to graphene or 2D materials.

This award gives winners the perfect launchpad they need to kickstart their business. The University of Manchester understands how crucial flexible early-stage financial support is for these kinds of ventures, to help make these dreams a reality and bring a product or technology to the market.

This year, the top prize of £50,000 went to Kun Huang of Solar Ethos. Kun has a Master’s degree in Corrosion Control Engineering and a PhD in Material Physics. The second prize of £20,000 was awarded to Hafiza Hifza Nawaz of Fabstics, who has a PhD in Materials. We also congratulate the other finalists - Mohammadhossein Saberian of EcoTarTech and Ozan Zehni of Dorlion SHM.

The winners, pictured above with Deputy Vice-Chancellor & Deputy President Luke Georghiou:

• Left: First place - Solar Ethos
• Right: Second place - Fabstics

All finalists received support throughout the competition, which included: pitching workshops, help with applications by Scott Dean (CEO of Graphene Trace), and IP advice from Innovation Factory. These resources were key in helping them navigate the challenges of starting a business and turning their groundbreaking ideas into real-world solutions.

Our top-tier judges included Professor Luke Georghiou, Deputy President and Deputy Vice-Chancellor at the University of Manchester; Lynn Sheppard, Masood Entrepreneurship Centre Director; Jessica McCreadie, Investment Director at Northern Gritstone; James Baker, CEO Graphene @91ֱ�� at The University of Manchester; and Gareth Jones, Project Manager - Electronics at the University of Manchester Innovation Factory. Their expertise and dedication to encouraging innovation played a key role in choosing projects that could make a big difference.

We offer a huge congratulations to all the participants! We can’t wait to see the fantastic impact of their innovative work in the commercial world. By supporting these entrepreneurs, we're not only helping them achieve their dreams but also paving the way for future advancements that can tackle some of the world's most pressing challenges.

Along with the awards, we heard inspiring speeches from high-profile individuals such as Lynn Sheppard, Professor James Baker, Dr. Vivek Koncherry, Liam Johnson, and Professor Luke Georghiou. They shared amazing insights about graphene and other 2D materials, emphasising the transformative potential of these technologies and the importance of ongoing innovation. We were also joined via Zoom from California by Dr. Eli Harari, founder of SanDisk, the memory storage technology company. He encouraged attendees to "Think Big!".

Eli & Britt Harari Award 2021 winner Dr. Vivek Koncherry, the CEO of Graphene Innovations 91ֱ��, is making significant strides in connecting graphene technology with global business opportunities. Last year, he signed a $1 billion partnership with Quazar Investment Company to create a new company in the UAE aimed at tackling global sustainability challenges. Recognised as 91ֱ��'s answer to Elon Musk, Vivek recently impressed judges to win the North West heat of KPMG’s Tech Innovator in the UK 2024. With a strong background as an alumnus and researcher from The University of Manchester, Vivek exemplifies the spirit of entrepreneurship and innovation.

Some notable quotes about the competition include Lynn Sheppard's encouragement, "For all the winners and nominees, your journey does not stop here, it goes on," and Prof. James Baker's insight, "Graphene can make a big difference in addressing the climate change challenges." Dr. Vivek Koncherry highlighted 91ֱ��'s entrepreneurial spirit by stating, "91ֱ�� is very good for entrepreneurship," while Dr. Eli Harari inspired with, "We need people like you to aspire in making the world better." Liam Johnson appreciated the award's impact, saying, "The award allowed me to turn this idea to something tangible," and Prof. Luke Georghiou emphasised the importance of support with, "It's our duty to build an ecosystem to support the development of graphene."

Their words emphasised the event's theme of driving change and shaping a brighter future through cutting-edge research and entrepreneurship, wrapping up the event on an exhilarating high.

Entitled ‘91ֱ�� Model: Industry led, academic fed’, the event brought to life how Graphene@91ֱ��’s ecosystem supports partners in leveraging the capabilities of 2D materials – from 2D material research tailored to organisation’s application needs, to accelerating their real-world translation. 

Professor James Baker, CEO of Graphene@91ֱ�� explains: “We offer something unique in UK academia: a comprehensive pipeline for scaling up, supporting industry through technology readiness levels 1 to 7. This is possible due to three key strengths: our world-leading community of research and innovation experts, our state-of-the-art facilities, and our lab-to-market expertise, where we can support industry in developing products with improved performance and reduced environmental impact. 

"Our University is at the forefront of the 2D materials revolution and serves as the UK's principal knowledge partner for the commercialisation of 2D materials. Today's event aimed to showcase our exceptional capabilities to a new industry audience, enabling them to benefit from our unparalleled offerings." 

Over the course of the two days, attendees met academics – including Professor Sir Kostya Novoselov, the Nobel Prize winning scientist who isolated graphene in 2004 with Professor Sir Andre Geim – and application experts leading cutting-edge research from lab to market; toured 91ֱ��’s world-leading facilities, National Graphene Institute (NGI) and the Graphene Engineering Innovation Centre (GEIC); met companies who have already benefited from their partnership with 91ֱ��; and were shown how the University is training a new generation of 2D materials experts.  

They were also invited to the presentation. This annual award, in association with Nobel Laureate Professor Sir Andre Geim, is gifted to help the implementation of commercially-viable business proposals from our students, post-doctoral researchers and recent graduates. 

‘91ֱ�� Model: Industry led, academic fed’ was hosted in the run up to the official 20^th anniversary of the first graphene paper. It recognised the University’s continued role in driving a fast-growing graphene economy.  

The University of Manchester is home to the highest-density graphene and 2D material research and innovation community in the world, comprising more than 350 experts spanning various disciplines, including physics, materials science, chemistry, neuroscience. This community includes academics, engineers and application experts, who bridge the gap between academia and the real-world needs of businesses, and innovation leaders, investment experts, IP advisors, plus operational and specialist technical staff.  

Renowned for rapidly advancing Technology Readiness Levels (TRL), this community is centred around two specialist facilities: the £62m academic-led NGI; and the multi-million pound research translation centre, the GEIC.  

The NGI is the hub for groundbreaking 2D material research, featuring 150m² of class five and six cleanrooms. It is home to Nobel Prize-winning Professor Sir Andre Geim, who, along with Professor Sir Kostya Novoselov, isolated graphene in 2004 and who continues to support a leading community of fundamental science researchers. 

The GEIC focuses on accelerating the development of lab-to-market innovations. In just five years, it has supported over 50 spin-outs and launched numerous new technologies, products, and applications in collaboration with industrial partners. These include a groundbreaking hydrogel for vertical farming and a method for extracting lithium from water for battery production. 

Read more about the event at the dedicated page. 

Visit to contact Graphene@91ֱ��’s experts and discover the facilities available. 

To discuss semicoductor research, talk about potential collaboration, or to access facilities . 
 

Thirty years after the Cosmic Microwave Background (CMB) spectrum was first precisely characterised by NASA's Cosmic Background Explorer (COBE) mission, a new experiment – known as BISOU (for Balloon Interferometer for Spectral Observations of the Universe) – is expected to significantly advance these measurements, gaining a factor of ~25 in sensitivity.

If successful, the results could provide unprecedented insights into the Universe's thermal history, validate predictions of the standard Big Bang Theory and potentially reveal new physics beyond our current understanding, marking a transformational step towards an ambitious future space-based CMB spectrometer to form part of the .

The CMB is leftover radiation from the time when the Universe began. Although the CMB is everywhere in the Universe, humans can't see it with the naked eye. But, using specialist equipment, it can be made visible even through the atmosphere’s curtain, offering novel insights into the Universe’s earliest moments.  

While the CMB’s near-perfect blackbody spectrum was first accurately measured three decades ago, and space missions such as WMAP and Planck have since revolutionised our understanding of the Universe by mapping the spatial variations in CMB temperature and linear polarisation across the sky, tiny deviations in the CMB known as spectral distortions remain largely unexplored. These distortions, predicted by theory, carry vital information about various cosmic processes in regimes that have not previously been explored.

With BISOU, scientists are intensively working on a new balloon-borne differential spectrometer to measure the distortions. The Phase 0 study, which concluded earlier this year, has already demonstrated the feasibility. Now, moving into Phase A, over the next two years, the consortium of researchers from France, Italy, Ireland, Spain, the UK, the USA and Japan, will finalise the detailed concept of the BISOU stratospheric balloon project before hopefully taking it to the skies in 2028/29.

The specialist equipment – a so-called Fourier Transform Spectrometer - builds on the long heritage of the COBE/FIRAS instrument and leverages insights from earlier studies like NASA's PIXIE and the European Space Agency's FOSSIL mission proposals.

The project is coordinated by Professor Bruno Maffei and the Institute of Space Astrophysics (IAS  - Institut d’Astrophysique Spatiale) Cosmology team and is funded by the French National Centre for Space Studies (CNES), which recently announced the transition of BISOU to Phase A.

• Feature-Enhanced Representation with Transformers for Multi-View Stereo 
• High-Frequency Channel Attention and Contrastive Learning for Image Super-Resolution 
• A Divide-and-Conquer Machine Learning Approach for Modelling Turbulent Flows 
•  
• DRLFluent: A distributed co-simulation framework coupling deep reinforcement learning with Ansys-Fluent on high-performance computing systems 
• Manifold-enhanced CycleGAN for facial expression synthesis 

To discuss this research or potential partnerships, contact Professor Yin at hujun.yin@manchester.ac.uk.
 

Electrochemical processes are essential in renewable energy technologies like batteries, fuel cells, and electrolysers. However, their efficiency is often hindered by slow reactions and unwanted side effects. Traditional approaches have focused on new materials, yet significant challenges remain.

The 91ֱ�� team, led by , has taken a novel approach. They have successfully decoupled the inseparable link between charge and electric field within graphene electrodes, enabling unprecedented control over electrochemical processes in this material. The breakthrough challenges previous assumptions and opens new avenues for energy technologies.

Dr Marcelo Lozada-Hidalgo sees this discovery as transformative, “We’ve managed to open up a previously inaccessible parameter space. A way to visualise this is to imagine a field in the countryside with hills and valleys. Classically, for a given system and a given catalyst, an electrochemical process would run through a set path through this field. If the path goes through a high hill or a deep valley – bad luck. Our work shows that, at least for the processes we investigated here, we have access to the whole field. If there is a hill or valley we do not want to go to, we can avoid it.”

The study focuses on proton-related processes fundamental for hydrogen catalysts and electronic devices. Specifically, the team examined two proton processes in graphene:

Proton Transmission: This process is important for developing new hydrogen catalysts and fuel cell membranes.

Proton Adsorption (Hydrogenation): Important for electronic devices like transistors, this process switches graphene’s conductivity on and off.

Traditionally, these processes were coupled in graphene devices, making it challenging to control one without impacting the other. The researchers managed to decouple these processes, finding that electric field effects could significantly accelerate proton transmission while independently driving hydrogenation. This selective acceleration was unexpected and presents a new method to drive electrochemical processes.

Highlighting the broader implication in energy applications, Dr Jincheng Tong, first author of the paper, said “We demonstrate that electric field effects can disentangle and accelerate electrochemical processes in 2D crystals. This could be combined with state-of-the-art catalysts to efficiently drive complex processes like CO2 reduction, which remain enormous societal challenges.”

Dr Yangming Fu, co-first author, pointed to potential applications in computing: “Control of these process gives our graphene devices dual functionality as both memory and logic gate. This paves the way for new computing networks that operate with protons.  This could enable compact, low-energy analogue computing devices.”

Since publication, a review of the paper was included in Nature’s News & Views section, which summarises high-impact research and provides a forum where scientific news is shared with a wide audience spanning a range of disciplines: .

The National Graphene Institute (NGI) is a world-leading graphene and 2D material centre, focussed on fundamental research. Based at The University of Manchester, where graphene was first isolated in 2004 by Professors Sir Andre Geim and Sir Kostya Novoselov, it is home to leaders in their field – a community of research specialists delivering transformative discovery. This expertise is matched by £13m leading-edge facilities, such as the largest class 5 and 6 cleanrooms in global academia, which gives the NGI the capabilities to advance underpinning industrial applications in key areas including: composites, functional membranes, energy, membranes for green hydrogen, ultra-high vacuum 2D materials, nanomedicine, 2D based printed electronics, and characterisation.

Using a combination of mathematics, computer simulations, and laboratory experiments, the researchers have discovered how to design a robot with the optimum size, shape and the arrangement of its parts, allowing it to jump high enough to clear obstacles many times its own size.

The current highest-jumping robot can reach up to 33 metres, which is equivalent to 110 times its own size. Now, researchers have found out how to design a robot that could jump over 120 metres in the air – that’s more than the height of Big Ben’s tower.

The advancement, published in the journal , will revolutionise applications ranging from planetary exploration to disaster rescue to surveillance of hazardous or inaccessible spaces.

Co-author , Research Associate in Space Robotics at The University of Manchester, said: “Robots are traditionally designed to move by rolling on wheels or using legs to walk, but jumping provides an effective way of travelling around locations where the terrain is very uneven, or where there are a lot of obstacles, such as inside caves, through forests, over boulders, or even the surface of other planets in space.

“While jumping robots already exist, there are several big challenges in the design of these jumping machines, the main one being to jump high enough to overcome large and complicated obstacles. Our design would dramatically improve the energy efficiency and performance of spring-driven jumping robots.”

The researchers found that traditional jumping robots often take off before fully releasing their stored spring energy, resulting in inefficient jumps and limiting their maximum height. They also found that they wasted energy by moving side to side or rotating instead of moving straight up.

The new designs must focus on removing these undesirable movements while maintaining the necessary structural strength and stiffness.

Co-author, Senior Lecturer in Aerospace Engineering, said: “There were so many questions to answer and decisions to make about the shape of the robot, such as should it have legs to push off the ground like a kangaroo, or should it be more like an engineered piston with a giant spring? Should it be a simple symmetrical shape like a diamond, or should it be something more curved and organic? Then, after deciding this we need to think about the size of the robot – small robots are light and agile, but then large robots can carry bigger motors for more powerful jumps, so is the best option somewhere in the middle?

“Our structural redesigns redistribute the robot’s component mass towards the top and taper the structure towards the bottom. Lighter legs, in the shape of a prism and using springs that only stretch are all properties that we have shown to improve the performance and most importantly, the energy efficiency of the jumping robot.”

Although the researchers have found a practicable design option to significantly improve performance, their next goal is to control the direction of the jumps and find out how to harness the kinetic energy from its landing to improve the number of jumps the robot can do in a single charge. They will also explore more compact designs for space missions, making the robot easier to transport and deploy on the moon.

has been awarded an OBE for his services to public health, to epidemiology and to adult social care, particularly during Covid-19, has been awarded an OBE for his for services to the advancement of the science of radiation protection, Professor Paul Klapper has been awarded an OBE for services to viral diagnostic testing, and Professor Paul Howarth has been awarded a CBE for his significant contribution and service to the nuclear industry and to UK research and development (R&D).

The list celebrates individuals who have had an immeasurable impact on the lives of people across the country - such as by creating innovative solutions or driving real change in public life.

Ian Hall is a Professor of Mathematical Epidemiology and Statistics at The University of Manchester. He is a long-standing member of SPI-M (the pandemic disease modelling advisory group) and played a critical role in the operations of this group during the swine flu and Covid-19 pandemics.

During the Covid-19 pandemic he was academic chair of the SAGE working group of Social Care and participated in the SAGE Environmental Modelling Group as well as attending SAGE itself. He was also involved in a number of research projects, including the national core study on transmission () and Project TRACK to understand and control the risks on public transport. He also helped analyse data from a new heat map, providing a national picture of the spread over time.

Since the pandemic, Professor Hall has continued working with UKHSA through an honorary contract, notably with Health Equity Division on vaccination strategies in prison and homeless settings.

His other research interests include the impact of diseases on vulnerable populations and the study of vector-borne infectious diseases and environmental infections, such as Legionnaires Disease.

Richard Wakeford is an Honorary Professor in Epidemiology in the Centre for Occupational and Environmental Health (COEH), having been Professor in Epidemiology at the Centre before retiring at the end of 2019. He specialises in the epidemiology of exposure to ionising radiation, particularly as related to radiological protection.

Professor Wakeford is a member of various committees, including the UN Scientific Committee on the Effects of Atomic Radiation and the International Commission on Radiological Protection. He was a member of the Scientific Advisory Group for Emergencies (SAGE) following the Fukushima nuclear accident in Japan, and for 25 years was Editor-in-Chief of the Journal of Radiological Protection.

Richard completed his PhD in high energy physics at the University of Liverpool in 1978 and worked for British Nuclear Fuels Ltd (BNFL) for nearly 30 years. It was the many challenges faced at BNFL where he developed his skills in radiation epidemiology and radiological protection. He was privileged to work with Sir Richard Doll during this time. After taking early retirement from BNFL, Richard joined the University, initially through an association with Dalton Nuclear Institute and then joining COEH.

Paul Klapper is Professor of Clinical Virology at The University of Manchester. He began his career in virology in 1976 working as a laboratory technician at Booth Hall Children’s Hospital. He completed his PhD while working at 91ֱ�� Royal Infirmary on the diagnosis of herpes simplex encephalitis - a topic he continued to work on for over 20 years and led to the development of a reliable molecular diagnostic test for the condition. He also helped establish independent quality assurance testing in the infancy of viral molecular diagnostic testing. 

Throughout his career, Professor Klapper has been at the forefront of several key developments of viral diagnostic testing. Notably, he worked with the Greater 91ֱ�� Hepatitis C testing strategy, developing community-based testing methods to aid control of the HCV pandemic. In 1981, he became an NHS Clinical Scientist, working in both 91ֱ�� and Leeds as a Consultant Clinical Scientist. Ten years later, in 1991 became a Fellow of the Royal College of Pathology. 

On retiring from the NHS in 2012, Professor Klapper joined The University of Manchester as a Professor of Clinical Virology.  Early in 2020, he volunteered to help with establishment of large scale Covid-19 testing and became the clinical lead for the Alderley Park testing facility. He also served as a Clinical Advisor for testing with the Department of Health.

 Professor Klapper continues to conduct vital research in blood-borne virus infection and in congenital human cytomegalovirus infection.

Paul Howarth is Professor of Nuclear Technology at The University of Manchester and Chief Executive of National Nuclear Laboratory. 

Professor Howarth has had a distinguished career working in and for the nuclear sector, building a reputation as one of the leading figures in the UK nuclear sector and around the global industry. After completing his degree in Physics and Astrophysics and PhD in Nuclear Physics, he started his career working on the European Fusion Programme. Early in his career he was awarded a prestigious Royal Society Fellowship to work in Japan on their nuclear programme. On returning to the UK he continued to work on nuclear fission leading the UK’s advanced reactor programme while working at British Nuclear Fuels, co-founding the at the University  and working closely with UK Government on building the case for new nuclear build.

Professor Howarth was appointed CEO for the National Nuclear Laboratory (NNL) in 2011 following its creation as a public corporation, having been instrumental in its establishment from British Nuclear Fuels Limited (BNFL). During his tenure as CEO, NNL has been transformed into a successful business and a true national laboratory, delivering profits to reinvest into nuclear science and technology and critical support to nuclear organisations in the public and private sectors. 

The birthday honours are awarded by the King following recommendations by the prime minister, senior government ministers, or members of the public.

The awards recognise active community champions, innovative social entrepreneurs, pioneering scientists, passionate health workers and dedicated volunteers who have made significant achievements in public life or committed themselves to serving and helping Britain.

To see the full Birthday Honours List 2024, visit: https://www.gov.uk/government/publications/the-kings-birthday-honours-list-2024  

The Options Roundabout event on the 12^th June 2024 was the culmination of the R2I programme which saw our researchers pitch to a panel of entrepreneurs, funders and commercialisation experts. The event which was an opportunity for the cohort to network and celebrate their achievements was hosted in our MEC Enterprise Zone, a dedicated entrepreneurship space in the Alliance 91ֱ�� Business School. 

The R2I programme aims to inspire and accelerate the translation of the knowledge created through academic research into products, services or processes to deliver tangible benefit through a series of bespoke workshops and mentoring opportunities. The workshops helped researchers articulate their ideas by taking them through a lean start-up pathway to explore the commercial potential of their research.

The Innovation Enabling Awards were granted to acknowledge the impact and growth potential with early career researchers receiving between £2000 to £8000 to further develop the commercial potential of their ideas and businesses.

Aline Miller, Professor of Biomolecular Engineering and Associate Dean for Business Engagement and Innovation, presented the Innovation Enabling Awards to the seven winning projects.

Award Winners

Innovation Enabling Awards: £8,000

Personalised phage therapy for bacteria infections 

Dr Rosanna Wright (School of Biological Sciences)

“The Researcher to Innovator programme has been an incredibly rewarding experience; the workshops, support and mentorship have helped me to understand the potential impact of my research and develop skills to better communicate with stakeholders. I am thrilled to receive an Innovation Prize which will accelerate our pathway to translation. Thank you R2I!”

UrbanWatt

Josiah Edebiri (School of Engineering)

"The Researcher to Innovator program has been a great experience; I enjoyed connecting with the other aspiring entrepreneurs and found the workshops hugely beneficial in developing my skillset to progress my enterprise moving forward."

Innovation Enabling Awards: £5,000

Scrap Metal Separation

Dr Kane Williams (School of Engineering)

"R2I enabled me to make contacts in areas of my research that I would not have had otherwise. These contacts will allow me to develop my research further and branch out into new areas." 

Gait Analysis System

Muhammad Taimoor Adil (School of Engineering)

“Participating in the Researcher to Innovator programme has been a transformative experience. The award validates my research's potential and provides essential support to turn it into an impactful solution. I'm grateful for the opportunity and excited to advance my deep-tech startup journey.”

Innovation Enabling Awards: £2,000

Breaking the barrier: A science-art hub

Dr Soheb Mandhai (School of Natural Sciences)

 “The R2I journey has opened my mind to new horizons and has equipped me with the foundational skills that I need to build my enterprise.”

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Matthew Reaney (School of Engineering)

“Having completed the program I can say our idea is in a better place and I feel I have skilled-up in terms of my communication of scientific ideas and willingness to reach out to potential collaborators.”

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Hongning Ren (School of Natural Sciences)

"I gained more appreciation of how to use my research to actually make a difference - sometimes it's better stepping out from lab to talk to real people, then you can solve some real problems."

The prize winners will also receive expert support and signposting to regional and national accelerator programmes and all the participants on the programme will have access to further support, mentoring and guidance from internal professional support teams, including the opportunity to build relationships with business engagement, Innovation Factory and the Masood Entrepreneurship Centre.

The organisers wish to thank the  Fellowship for their sponsorship of the Innovation Enabling Awards.

Get Involved

If you are an early career researcher looking for an exciting opportunity to develop your innovative thinking and enhance your understanding of creating and developing impact join the next round of the R2I programme. Find out more .

The MEC Researcher to Innovator (R2I) programme is supported by the University’s Innovation Academy. The Innovation Academy is a pan University initiative and joint venture between the , the and the Business Engagement and Knowledge Exchange team, bringing together knowledge, expertise and routes to facilitate the commercialisation of research.

Dr Selena Lockyer, Professor Matthew Gibson, Professor Sarah Lovelock and the Functional Framework Materials: Design and Characterisation Team, led by and Professor Sihai Yang have all been recognised with a prize this year.

Dr Selena Lockyer has been named winner of the Royal Society of Chemistry’s Dalton Emerging Researcher Prize for her synthetic and spectroscopic studies of molecular magnets, particularly supramolecular assemblies that could be used in quantum information processing. Dr Lockyer will also receive £3000 and a medal.

Dr Lockyer investigates the properties of individual electrons at the molecular level and how they can interact with one another and relay or store information. This is done at the National Service for Electron Paramagnetic Resonance Spectroscopy at The University of Manchester.

Apart from making devices smaller, quantum devices possess other advantages. One such phenomenon is known as a superposition state that can be used in quantum bits (qubits), which a standard classical bit – the ones in our laptops – is unable to achieve.

A quantum computer will help us address society's challenges by modelling and developing solutions for climate change, sustainability and energy sources, medical conditions, and how to make a more efficient and better quantum computer.

After receiving the prize, Dr Lockyer said: “It’s such an honour and privilege to receive this award. Unexpected, as there are so many up-and-coming scientists working on numerous research areas, which makes this all the more special. When you look back at the list of previous winners, it is overwhelming to now be part of this.”

has been named winner of the Royal Society of Chemistry’s Corday-Morgan Prize.

Professor Gibson won the prize for transformative contributions in polymer and biomaterials science, particularly for the development of materials to stabilise biologics. Professor Gibson will also receive £5000 and a medal.

Storing and transporting biological materials is crucial to modern life, from frozen food to the safe delivery of blood transfusions, stem cells, or even organs. Professor Gibson and his team have learned from some of nature’s toughest organisms, which can survive sub-zero temperatures, to develop new materials which can protect biopharmaceuticals against cold stress.

After receiving the prize, Professor Gibson said: “I’m honoured to be recognised for the work we have done in my team to develop new tools to help us stabilize biologics against cold stress and to join a such a distinguished list of former awardees.”

has been named winner of the Royal Society of Chemistry’s Harrison-Meldola Prize.

Dr Lovelock won the prize for the development of innovative biocatalytic approaches to produce therapeutic oligonucleotides. She also receives £5000 and a medal.

Therapeutic oligonucleotides are a new class of RNA-based molecules that have the potential to treat a wide range of diseases. However, the rapidly growing number of therapies approved and in advanced clinical trials is placing unprecedented demands on our capacity to manufacture oligonucleotides at scale.

Biocatalysis is an exciting technology that is widely used across the chemical industry: this is where enzymes are used to convert starting materials into high-value products. Dr Lovelock’s group is developing biocatalytic approaches to produce therapeutic oligonucleotides in a more sustainable and scalable way.

One strategy they have developed produces complex oligonucleotide sequences in a single operation using polymerases and endonucleases (nature’s enzymes). These enzymes work together to amplify complementary sequences embedded within a catalytic template. The group is working in partnership with industry to translate their approaches into manufacturing processes.

After receiving the prize, Dr Lovelock said: “I am delighted to have been awarded the 2024 Harrison-Meldola Memorial Prize. I am very grateful to my talented research group. It is their hard work, great ideas, and dedication that has made this award possible.”

The Functional Framework Materials: Design and Characterisation Team have been named winners of the Royal Society of Chemistry’s Horizon Prize, which celebrates discoveries and innovations that push the boundaries of science.

The team is a collaboration between The University of Manchester, Oak Ridge National Laboratory, Diamond Light Source, ISIS Neutron and Muon Source STFC, Berkeley Advanced Light Source, Peking University, Xiamen University and the University of Chicago.

They were awarded the prize for seminal contributions to in situ and operando characterisation of porous materials and catalysts for the binding, capture and separation of fuels, hydrocarbons, and pollutants. The team receive a trophy and a video showcasing their work, and each team member receives a certificate.

Metal-organic frameworks (MOFs) are porous materials that can capture and store important fuels like hydrogen, methane, and ammonia, hydrocarbons (ethane, propane, and xylenes), and harmful pollutants (carbon dioxide, sulfur dioxide, and nitrogen dioxide).

Using state-of-the-art X-ray and neutron techniques, the team have been able to see the MOFs at the atomic level and how the captured molecules interact with the MOF’s internal structure during reactions. They also used computational modelling to give a deep understanding of how these advanced functional materials operate at a molecular level. This extensive collaboration has been crucial for producing improved materials that can be integrated into our daily lives and makes a vital contribution towards solving the pressing climate and energy challenges that the world faces.

Professor Martin �������ö����, Vice President and Dean, Faculty of Science and Engineering, who leads the group at The University of Manchester, said: “I am delighted and honoured that the Royal Society of Chemistry has recognised our interdisciplinary team with the Dalton Horizon Prize. This has been a truly international collaborative effort spanning multiple individuals and groups each bringing their own unique expertise to address challenge research areas.”

The Royal Society of Chemistry’s prizes have recognised excellence in the chemical sciences for more than 150 years. This year’s winners join a prestigious list of past winners in the RSC’s prize portfolio, 60 of whom have gone on to win Nobel Prizes for their work, including 2022 Nobel laureate Carolyn Bertozzi and 2019 Nobel laureate John B Goodenough.

The Research and Innovation Prizes celebrate brilliant individuals across industry and academia. They include prizes for those at different career stages in general chemistry and for those working in specific fields, as well as interdisciplinary prizes and prizes for those in specific roles. The Horizon Prizes highlight exciting, contemporary chemical science at the cutting edge of research and innovation. These prizes are for groups, teams and collaborations of any form or size who are opening up new directions and possibilities in their field, through groundbreaking scientific developments. Other prize categories include those for Education (announced in November), the Inclusion & Diversity Prize, and Volunteer Recognition Prizes.

Dr Helen Pain, Chief Executive of the Royal Society of Chemistry, said: “The chemical sciences cover a rich and diverse collection of disciplines, from fundamental understanding of materials and the living world to applications in medicine, sustainability, technology and more. By working together across borders and disciplines, chemists are finding solutions to some of the world’s most pressing challenges.

“Our prize winners come from a vast array of backgrounds, all contributing in different ways to our knowledge-base and bringing fresh ideas and innovations. We recognise chemical scientists from every career stage and every role type, including those who contribute to the RSC’s work as volunteers. We celebrate winners from both industry and academia, as well as individuals, teams, and the science itself.

“Their passion, dedication and brilliance are an inspiration. I extend my warmest congratulations to them all.”

For more information about the RSC’s prizes portfolio, visit .

Throughout the year, teachers of 5-14 years olds have the chance to upskill in their own knowledge and skills of teaching science enquiry, using innovative resources and ideas related to the theme of Sustainable Science to involve their pupils in asking and investigating scientific questions that matter to them.

Now, on Tuesday 11 June, teachers and their pupils will come together in celebratory events both in-person and online, across the UK and beyond, to share what they have learnt with their peers, family, industry professionals and the general public.  

This year’s theme is Sustainable Science, with a focus on the Some of the questions shared this year, include:

·       How could we prevent the polar ice caps melting? 

·       Which fruit or vegetable is most likely to be able to power an electric car? 

·       What effects does plastic pollution have on wildlife? 

·       Which fabrics shed less fibres and are therefore better for the environment? 

·       Can we increase the biodiversity in our school? 

The Great Science Share for Schools (GSSfS) campaign was launched by Professor Lynne Bianchi, Vice Dean for Social Responsibility at The University of Manchester, to provide a unique way to elevate the prominence of science in the classroom, focussing on learner-focussed science communication, inclusive and non-competitive engagement, and promoting collaboration.

Supported by a team of specialists, they have an approach that is supported across the STEM sector, and actively involves research from a range of fields including quantum science, fashion materials, computing and the creative industries.

Earlier this year, the campaign was granted the prestigious patronage of the , in recognition of its status as a beacon of excellence in science education and its pivotal role in shaping the next generation of scientists, innovators, and global citizens.

The team’s growth strategy, which monitors the reach and quality of the campaign, sees it develop year on year. Now, in its ninth year, there will be more than 650,000 pupils registered across 40 countries, with schools in Montenegro being some of the latest to join.

Professor Lynne Bianchi added: “GSSfS is a powerful and purposeful way to engage young people with science related to real-world contexts. It offers teachers and school leaders the chance to raise the profile of science at a time where our economy relies so heavily on STEM skills and innovation.”

Professor Bianchi, recently advised on the new Education Endowment Foundation’s Improving Primary Science Guidance and is researching the purpose and effectiveness of practical work in science as part of a Nuffield Foundation research study. In this way, the knowledge and awareness developed within the Great Science Share for Schools informs leading practice by sharing best practice and insights to make a wider impact.

An exciting addition to the Great Science Share this year is the release of the brand-new which publishes 200 questions shared by pupils.

Professor Bianchi said: “This has been an ideal opportunity to celebrate The University of Manchester’s Bicentenary, and to inspire more teachers and young people across the world to ask, investigate and share their questions with each other.”

The international team, which also included Penn State College of Engineering, Koc University in Turkey and Vienna University of Technology in Austria, has developed a unique interface that localises thermal emissions from two surfaces with different geometric properties, creating a “perfect” thermal emitter. This platform can emit thermal light from specific, contained emission areas with unit emissivity.

, professor of 2D device materials at The University of Manchester, explains, “We have demonstrated a new class of thermal devices using concepts from topology — a branch of mathematics studying properties of geometric objects — and from non-Hermitian photonics, which is a flourishing area of research studying light and its interaction with matter in the presence of losses, optical gain and certain symmetries.”

The team said the work could advance thermal photonic applications to better generate, control and detect thermal emission. One application of this work could be in satellites, said co-author Prof Sahin Ozdemir, professor of engineering science and mechanics at Penn State. Faced with significant exposure to heat and light, satellites equipped with the interface could emit the absorbed radiation with unit emissivity along a specifically designated area designed by researchers to be incredibly narrow and in whatever shape is deemed necessary.   

Getting to this point, though, was not straight forward, according to Ozdemir. He explained part of the issue is to create a perfect thermal absorber-emitter only at the interface while the rest of the structures forming the interface remains ‘cold’, meaning no absorption and no emission.

“Building a perfect absorber-emitter—a black body that flawlessly absorbs all incoming radiation—proved to be a formidable task,” Ozdemir said. However, the team discovered that one can be built at a desired frequency by trapping the light inside an optical cavity, formed by a partially reflecting first mirror and a completely reflecting second mirror: the incoming light partially reflected from the first mirror and the light which gets reflected only after being trapped between the two mirrors exactly cancel each other. With the reflection thus being completely suppressed, the light beam is trapped in the system, gets perfectly absorbed, and emitted in the form of thermal radiation.

To achieve such an interface, the researchers developed a cavity stacked with a thick gold layer that perfectly reflects incoming light and a thin platinum layer that can partially reflect incoming light. The platinum layer also acts as a broadband thermal absorber-emitter. Between the two mirrors is a transparent dielectric called parylene-C.

The researchers can adjust the thickness of the platinum layer as needed to induce the critical coupling condition where the incoming light is trapped in the system and perfectly absorbed, or to move the system away from the critical coupling to sub- or super-critical coupling where perfect absorption and emission cannot take place.

“Only by stitching two platinum layers with thicknesses smaller and larger than the critical thickness over the same dielectric layer, we create a topological interface of two cavities where perfect absorption and emission are confined. Crucial here is that the cavities forming the interface are not at critical coupling condition,” said first author M. Said Ergoktas, a research associate at The University of Manchester 

The development challenges conventional understanding of thermal emission in the field, according to co-author Stefan Rotter, professor of theoretical physics at the Vienna University of Technology, “Traditionally, it has been believed that thermal radiation cannot have topological properties because of its incoherent nature.”

According to Kocabas, their approach to building topological systems for controlling radiation is easily accessible to scientists and engineers.  

“This can be as simple as creating a film divided into two regions with different thicknesses such that one side satisfies sub-critical coupling, and the other is in the super-critical coupling regime, dividing the system into two different topological classes,” Kocabas said.

The realised interface exhibits perfect thermal emissivity, which is protected by the reflection topology and “exhibits robustness against local perturbations and defects,” according to co-author Ali Kecebas, a postdoctoral scholar at Penn State. The team confirmed the system’s topological features and its connection to the well-known non-Hermitian physics and its spectral degeneracies known as exceptional points through experimental and numerical simulations.

“This is just a glimpse of what one can do in thermal domain using topology of non-Hermiticity. One thing that needs further exploration is the observation of the two counterpropagating modes at the interface that our theory and numerical simulations predict,” Kocabas said.

The National Graphene Institute (NGI) is a world-leading graphene and 2D material centre, focussed on fundamental research. Based at The University of Manchester, where graphene was first isolated in 2004 by Professors Sir Andre Geim and Sir Kostya Novoselov, it is home to leaders in their field – a community of research specialists delivering transformative discovery. This expertise is matched by £13m leading-edge facilities, such as the largest class 5 and 6 cleanrooms in global academia, which gives the NGI the capabilities to advance underpinning industrial applications in key areas including: composites, functional membranes, energy, membranes for green hydrogen, ultra-high vacuum 2D materials, nanomedicine, 2D based printed electronics, and characterisation.

Neutron stars - the ultra-dense remains of a dead star - typically rotate at mind-bendingly fast speeds, taking just seconds or even a fraction of a second to fully spin on their axis.

However, the neutron star, newly discovered by an international team of astronomers, defies this rule, emitting radio signals on a comparatively leisurely interval of 54 minutes.

The team was led by Dr Manisha Caleb at the University of Sydney and Dr Emil Lenc at CSIRO, Australia’s national science agency and includes scientists at The University of Manchester and the University of Oxford.

The results, published today in the journal , offer new insights into the complex life cycles of stellar objects.

At the end of their life, large stars use up all their fuel and explode in a spectacular blast called a supernova. What remains is a stellar remnant called a neutron star, made up of trillions of neutrons packed into a ball so dense that its mass is 1.4 times that of the Sun is packed into a radius of just 10km.

The unexpected radio signal from the stellar object detected by the scientists travelled approximately 16,000 light years to Earth.  The nature of the radio emission and the rate at which the spin period is changing suggest it is a neutron star. However, the researchers have not ruled out the possibility of it being an isolated white dwarf with an extraordinarily strong magnetic field. Yet, the absence of other nearby highly magnetic white dwarfs makes the neutron star explanation more plausible.

Further research is required to confirm what the object is, but either scenario promises to provide valuable insights into the physics of these extreme objects. 

The findings could make scientists reconsider their decades-old understanding of neutron stars or white dwarfs; how they emit radio waves and what their populations are like in our Milky Way galaxy.

The discovery was made using CSIRO’s ASKAP radio telescope on Wajarri Yamaji Country in Western Australia, which can see a large part of the sky at once and means it can capture things researchers aren’t even looking for.

The research team were simultaneously monitoring a source of gamma rays and seeking a fast radio burst when they spotted the object slowly flashing in the data.

Lead author Dr Manisha Caleb from the University of Sydney Institute for Astronomy, said: “What is intriguing is how this object displays three distinct emission states, each with properties entirely dissimilar from the others. The MeerKAT radio telescope in South Africa played a crucial role in distinguishing between these states. If the signals didn’t arise from the same point in the sky, we would not have believed it to be the same object producing these different signals.”

The origin of such a long period signal remains a profound mystery, with white dwarfs and neutron stars the prime suspects. But as further investigations continue, this discovery is set to deepen our understanding of the universe’s most enigmatic objects.

The telescope, launched in July 2023, is part of the Dark Energy Satellite Mission, which aims to map the dark Universe.

Led by the European Space Agency in collaboration with The Euclid Consortium - which includes astronomers at The University of Manchester in leadership positions – the mission seeks to unlock mysteries of dark matter and dark energy and reveal how and why the Universe looks as it does today.

Early observations, described in a series of published today, include five never-before-seen images of the Universe.

The papers also describe several new discoveries including, free-floating new-born planets, newly identified extragalactic star clusters, new low-mass dwarf galaxies in a nearby galaxy cluster, the distribution of dark matter and intracluster light in galaxy clusters, and very distant bright galaxies from the first billion years of the Universe.

The findings give an insight into the unprecedented power of the Euclid telescope, which is designed to provide the most precise map of our Universe over time and demonstrates Euclid’s ability to unravel the secrets of the cosmos.

Chrisopher Conselice, Professor of Extragalactic Astronomy at The University of Manchester, said: “Euclid will completely revolutionise our view of the Universe. Already these results are revealing important new findings about local galaxies, new unknown dwarf galaxies, extrasolar planets and some of the first galaxies. These results are only the tip of the iceberg in terms of what will come. Soon Euclid will discover yet unknown details of the dark energy and give a full picture of how galaxy formation occurred across all cosmic time.”

Michael Brown, Professor of Astrophysics at The University of Manchester, added: “The exceptional data that Euclid is delivering over a large fraction of the sky promises to revolutionise our understanding of dark energy. It is extremely exciting to be part of the team working to extract these headline science results.”

The Early Release Observations programme was conducted during Euclid’s first months in space as a first look at the depth and diversity of science Euclid will provide. A total of 24 hours were allocated to target 17 specific astronomical objects, from nearby clouds of gas and dust to distant clusters of galaxies, producing stunning images that are invaluable for scientific research. In just a single day, Euclid produced a catalogue of more than 11 million objects in visible light and five million more in infrared light.

The images published today follow the return of produced in November 2023.

In addition to contributions to the mission’s primary objectives, scientists at The University of Manchester, in collaboration with the University of Massachusetts Amherst, conducted a preliminary search of the data for distant galaxies. The red galaxies in the image show the cluster, which acts as a magnifying glass to reveal more distant sources behind. In total, 29 galaxies were discovered providing insight into the first billion years of the Universe.

Dr Rebecca Bowler, Ernest Rutherford Fellow at The University of Manchester, said: “In these spectacular images we can see galaxies that were previously invisible, because the most distant galaxies can only be discovered using the longer near-infrared wavelengths seen by Euclid. 

“This first look data has been invaluable to test our search algorithms and identifying challenges, such as confusion of distant galaxies with brown dwarfs in our own Milky Way, before we start working on the main data later this year.   

“What is amazing is that these images cover an area of less than 1% of the full deep observations, showing that we expect to detect thousands of early galaxies in the next few years with Euclid, which will be revolutionary in understanding how and when galaxies formed after the Big Bang.”

The images obtained by Euclid are at least four times sharper than those that can be taken from ground-based telescopes. They cover large patches of sky at unrivalled depth, looking far into the distant Universe using both visible and infrared light.

The next data release from the Euclid Consortium will focus on Euclid’s primary science objectives. A first worldwide quick release is currently planned for March 2025, while a wider data release is scheduled for June 2026. At least three other quick releases and two other data releases are expected before 2031, which corresponds to a few months after the end of Euclid’s initial survey.

The Euclid Consortium comprises more than 2600 members, including over 1000 researchers from more than 300 laboratories in 15 European countries, plus Canada, Japan and United States, covering various fields in astrophysics, cosmology, theoretical physics, and particle physics.

Josef Aschbacher, ESA Director General, said: “Euclid demonstrates European excellence in frontier science and state-of-the-art technology, and showcases the importance of international collaboration.

“The mission is the result of many years of hard work from scientists, engineers and industry throughout Europe and from members of the Euclid scientific consortium around the world, all brought together by ESA. They can be proud of this achievement – the results are no small feat for such an ambitious mission and such complex fundamental science. Euclid is at the very beginning of its exciting journey to map the structure of the Universe.”

The centre has been awarded £1.2m through an International Centre to Centre grant from the Engineering and Physical Sciences Research Council, part of UK Research and Innovation. Led by Professor , Interim Director of the MIB, along with Professor and Dr , and in partnership with Professor David Baker from the Institute of Protein Design (IPD) at the University of Washington, ICED will employ the latest deep-learning protein design tools to accelerate the development of new biocatalysts for use across the chemical industry. The centre will deliver customised biocatalysts for sustainable production of a wide range of chemicals and biologics, including pharmaceuticals, agrochemicals, materials, commodity chemicals and advanced synthetic fuels.

Biocatalysis uses natural or engineered enzymes to speed up valuable chemical processes. This technology is now widely recognised as a key enabling technology for developing a greener and more efficient chemical industry. Although powerful, existing experimental methods for developing industrial biocatalysts are costly and time-consuming, and this restricts the potential impact of biocatalysis on many industrial processes. Furthermore, for many desirable chemical transformations there are no known enzymes that can serve as starting templates for experimental engineering. In ICED we will bring together leading computational and experimental teams from across academia and industry to bring about a step-change in the speed of biocatalyst development. The approaches developed will also allow the development of new families of enzymes with catalytic functions that are unknown in nature.

Professor David Baker, lead researcher from the Institute of Protein Design says; “Accurately designing efficient enzymes with new catalytic functions is one of the grand challenges for the protein design field. We are thrilled to be working with Professor Green and his team in the MIB to address this crucial biotechnological challenge.’’

The design tools developed throughout the project will be readily available to specialists and non-specialists to support their own enzyme engineering and biocatalysis needs. As the centre develops, we expect to grow our partnerships with the wider academic and industrial sector to ensure that we can best serve the needs and ambitions of the global biocatalysis community.

With the chemical and pharmaceutical industries contributing £30.7bn to the UK economy alone, technologies like biocatalysis are poised to revolutionise how every day, essential products are made while also benefitting our health and our environment.

The defect, found by researchers from the Universities of Manchester and Cambridge using a thin material called Hexagonal Boron Nitride (hBN), demonstrates spin coherence—a property where an electronic spin can retain quantum information— under ambient conditions. They also found that these spins can be controlled with light.

Up until now, only a few solid-state materials have been able to do this, marking a significant step forward in quantum technologies.

The findings published in , further confirm that the accessible spin coherence at room temperature is longer than the researchers initially imagined it could be.

Carmem M. Gilardoni, co-author of the paper and postdoctoral fellow at the Cavendish Laboratory at the University of Cambridge, where the research was carried out, said: “The results show that once we write a certain quantum state onto the spin of these electrons, this information is stored for ~1 millionth of a second, making this system a very promising platform for quantum applications.

“This may seem short, but the interesting thing is that this system does not require special conditions – it can store the spin quantum state even at room temperature and with no requirement for large magnets.”

Hexagonal Boron Nitride (hBN) is an ultra-thin material made up of stacked one-atom-thick layers, kind of like sheets of paper. These layers are held together by forces between molecules, but sometimes, there are tiny flaws between these layers called ‘atomic defects’, similar to a crystal with molecules trapped inside it. These defects can absorb and emit light that we can see, and they can also act as local traps for electrons. Because of the defects in hBN, scientists can now study how these trapped electrons behave, particularly the spin property, which allows electrons to interact with magnetic fields. They can also control and manipulate the electron spins using light within these defects at room temperature – something that has never been done before.

Dr Hannah Stern, first author of the paper and Royal Society University Research Fellow and Lecturer at The University of Manchester, said: “Working with this system has highlighted to us the power of the fundamental investigation of new materials. As for the hBN system, as a field we can harness excited state dynamics in other new material platforms for use in future quantum technologies.

“Each new promising system will broaden the toolkit of available materials, and every new step in this direction will advance the scalable implementation of quantum technologies.”

Prof Richard Curry added: “Research into materials for quantum technologies is critical to support the UK’s ambitions in this area. This work represents another leading breakthrough from a University of Manchester researcher in the area of materials for quantum technologies, further strengthening the international impact of our work in this field.”

Although there is a lot to investigate before it is mature enough for technological applications, the finding paves the way for future technological applications, particularly in sensing technology.

The scientists are still figuring out how to make these defects even better and more reliable and are currently probing how far they can extend the spin storage time. They are also investigating whether they can optimise the system and material parameters that are important for quantum-technological applications, such as defect stability over time and the quality of the light emitted by this defect.

, Director of Jodrell Bank Centre for Astrophysics, has been elected as a Fellow of the Royal Society in recognition of his “invaluable contributions to science”.

Professor Garrett is one of more than 90 exceptional researchers across the world to be selected by the Royal Society - the UK’s national academy of sciences.

Michael is the inaugural Sir Bernard Lovell chair of Astrophysics at The University of Manchester and has broad scientific interest, including the study of the distant universe via high resolution radio observations. He is also active in the and is currently chair of the International Academy of Astronautics SETI Permanent Committee.

Prof Garret is a leader in the field of astrophysics and was responsible for the final design, construction, and operational phases of the International , and while Director of the Joint Institute for VLBI in Europe (2003-2007), he developed the technique of wide-field and spearheaded the roll-out of real-time VLBI (e-VLBI) across the European VLBI Network and beyond.

Garrett was also instrumental in finalising the original design concept for the .

Drawn from across academia, industry and wider society, the new intake spans disciplines as varied as studying the origins and evolution of our universe, pioneering treatments for Huntington’s Disease, developing the first algorithm for video streaming and generating new insights into memory formation.

Prof Garrett joins other leaders in their fields, including the Nobel laureate, Professor Emmanuelle Charpentier; an Emmy winner, Dr Andrew Fitzgibbons (for his contributions to the 3D camera tracker software “boujou”); and the former Chief Scientific Advisor to the US President, Professor Anthony Fauci.

Sir Adrian Smith, President of the Royal Society, said: “I am pleased to welcome such an outstanding group into the Fellowship of the Royal Society.

“This new cohort have already made significant contributions to our understanding of the world around us and continue to push the boundaries of possibility in academic research and industry.

“From visualising the sharp rise in global temperatures since the industrial revolution to leading the response to the Covid-19 pandemic, their diverse range of expertise is furthering human understanding and helping to address some of our greatest challenges.

“It is an honour to have them join the Fellowship.”

Statistics about this year’s intake of Fellows:

• 30% of this year’s intake of Fellows, Foreign Members and Honorary Fellows are women.
• New Fellows have been elected from 23 UK institutions, including The University of Nottingham, British Antarctic Survey, University of Strathclyde and the Natural History Museum
• They have been elected from countries including Brazil, China, Japan, Mexico and Singapore

The full list of the newly elected Fellows and Foreign Members of the Royal Society can be found here:

In an event at the Pankhurst Building, academics representing all faculties and the University’s Industry partners attended to learn about the establishment of these two leading Artificial Intelligence and Machine Learning research Centres and hear more about the vision for continued growth. 

The Centres aim to solve real-world challenges through collaborative work utilising AI with other disciplines. Central to this is a focus on the fundamental methods being used to power the AI solutions. Advantages will come from leading-edge research breakthroughs in new methodologies for machine learning, with huge potential for cross-disciplinary benefits. 

The event provided an opportunity to recognise the early success of the Centre in successfully securing funding in three UKRI calls:

• Turing AI World-Leading Researcher Fellowship 
• Centre for Doctoral Training (CDT) in Decision Making for Complex Systems 
• AI Hub in Generative Models

This research income is fuelling lots of research at the Centre with AI-focussed work underway that bridges into other fields including robotics, healthcare and sustainability. 

Across AI Fundamentals and the ELLIS unit, currently over 25 PhD studentships are underway. It is anticipated that over 30 PhD students will join in the coming years with diverse and interesting opportunities soon to be advertised across the Centre websites and wider University channels.

The Centre for AI Fundamentals is eager to work collaboratively on high-impact problems we can better solve together. Anyone wanting to become involved with the Centre is welcome to engage with us directly or to learn more.

About the Centre for AI Fundamentals (AI-FUN)
The Centre brings together leading AI expertise in collaboration with experts in a range of fields. Led by Professor Samuel Kaski, the goal is to create and develop cutting-edge machine learning techniques to help solve real-world problems. .

About the ELLIS Unit 91ֱ��
ELLIS - the European Laboratory for Learning and Intelligent Systems - is a pan-European AI network of excellence which focuses on fundamental science, technical innovation and societal impact. Led by Professor Magnus Rattray, the 91ֱ�� unit is one of 41 across Europe.  

The project leverages a £5 million investment from the ’s Place-Based Impact Acceleration Account to stimulate innovation and commercial growth. The IBIC will give businesses and start-ups a platform to engage with higher education institutions, governmental organisations and researchers in the north-west, and support translating fundamental biotechnology research from the lab to the real world.   

The IBIC launches at a significant time for the UK’s biotechnology market. The UK Government’s on biotechnology and signal increasing interest in the sector, which was valued at £21.8billion in 2023, according to IBISWorld.

Professor Aline Miller, Professor of Biomolecular Engineering and Associate Dean for Business Engagement and Innovation at The University of Manchester, said: "Combine academic research with industrial application, and together we can yield transformative outcomes for both our economy and environment.

“With the launch of the IBIC, we are inviting businesses and startups to join us as we take on global challenges like climate change and sustainability. To do that, we need to create a vibrant ecosystem of interconnected disciplines to help scale businesses, bring research to life and ultimately deliver huge economic benefits to the north-west and beyond.”

This invitation extends particularly to SMEs, high-growth biotech companies, and other businesses interested in contributing to and benefiting from a thriving biotechnology industry in the north-west.

Companies interested in participating or learning more about the Industrial Biotechnology Innovation Catalyst can contact the IBIC team at ibic@manchester.ac.uk for more information and to discuss potential collaboration and partnership opportunities.

Fast forward to today, and history repeats itself, this time in quantum computing.

Building on the same pioneering method forged by Ernest Rutherford – "the founder of nuclear physics" – scientists at the University, in collaboration with the University of Melbourne in Australia, have produced an enhanced, ultra-pure form of silicon that allows construction of high-performance qubit devices – a fundamental component required to pave the way towards scalable quantum computers.

The finding, published in the journal Communications Materials - Nature, could define and push forward the future of quantum computing.

Richard Curry, Professor of Advanced Electronic Materials at The University of Manchester, said: “What we’ve been able to do is effectively create a critical ‘brick’ needed to construct a silicon-based quantum computer. It’s a crucial step to making a technology that has the potential to be transformative for humankind - feasible; a technology that could give us the capability to process data at such as scale, that we will be able to find solutions to complex issues such as addressing the impact of climate change and tackling healthcare challenges.  

“It is fitting that this achievement aligns with the 200th anniversary of our University, where 91ֱ�� has been at the forefront of science innovation throughout this time, including Rutherford’s ‘splitting the atom’ discovery in 1917, then in 1948 with ‘The Baby’ - the first ever real-life demonstration of electronic stored-program computing, now with this step towards quantum computing.”

One of the biggest challenges in the development of quantum computers is that qubits – the building blocks of quantum computing - are highly sensitive and require a stable environment to maintain the information they hold. Even tiny changes in their environment, including temperature fluctuations can cause computer errors.

Another issue is their scale, both their physical size and processing power. Ten qubits have the same processing power as 1,024 bits in a normal computer and can potentially occupy much smaller volume. Scientists believe a fully performing quantum computer needs around one million qubits, which provides the capability unfeasible by any classical computer.

Silicon is the underpinning material in classical computing due to its semiconductor properties and the researchers believe it could be the answer to scalable quantum computers. Scientists have spent the last 60 years learning how to engineer silicon to make it perform to the best of its ability, but in quantum computing, it has its challenges.

Natural silicon is made up of three atoms of different mass (called isotopes) – silicon 28, 29 and 30. However the Si-29, making up around 5% of silicon, causes a ‘nuclear flip flopping’ effect causing the qubit to lose information.

In a breakthrough at The University of Manchester, scientists have come up with a way to engineer silicon to remove the silicon 29 and 30 atoms, making it the perfect material to make quantum computers at scale, and with high accuracy.

The result – the world’s purest silicon – provides a pathway to the creation of one million qubits, which may be fabricated to the size of pin head.

Ravi Acharya, a PhD researcher who performed experimental work in the project, explained: "The great advantage of silicon quantum computing is that the same techniques that are used to manufacture the electronic chips — currently within an everyday computer that consist of billions of transistors — can be used to create qubits for silicon-based quantum devices. The ability to create high quality Silicon qubits has in part been limited to date by the purity of the silicon starting material used. The breakthrough purity we show here solves this problem."

The new capability offers a roadmap towards scalable quantum devices with unparalleled performance and capabilities and holds promise of transforming technologies in ways hard to imagine.

Project co-supervisor, Professor David Jamieson, from the University of Melbourne, said: “Our technique opens the path to reliable quantum computers that promise step changes across society, including in artificial intelligence, secure data and communications, vaccine and drug design, and energy use, logistics and manufacturing.

“Now that we can produce extremely pure silicon-28, our next step will be to demonstrate that we can sustain quantum coherence for many qubits simultaneously. A reliable quantum computer with just 30 qubits would exceed the power of today's supercomputers for some applications,”

What is quantum computing and how does it work?

All computers operate using electrons. As well as having a negative charge, electrons have another property known as ‘spin’, which is often compared to a spinning top.

The combined spin of the electrons inside a computer’s memory can create a magnetic field. The direction of this magnetic field can be used to create a code where one direction is called ‘0’ and the other direction is called ‘1’. This then allows us to use a number system that only uses 0 and 1 to give instructions to the computer. Each 0 or 1 is called a bit.

In a quantum computer, rather than the combined effect of the spin of many millions of electrons, we can use the spin of single electrons, moving from working in the ‘classical’ world to the ‘quantum’ world; from using ‘bits’ to ‘qubits’.

While classical computers do one calculation after another, quantum computers can do all the calculations at the same time allowing them to process vast amounts of information and perform very complex calculations at an unrivalled speed.

The Nile is one of the longest rivers globally and spreads over 11 countries in East Africa, supplying water, energy production, environmental quality and cultural wealth. However, the use of Nile resources has been a long-standing source of tension, often overshadowing opportunities for cooperation and mutual benefit.

But as the demand for energy, water, and food in Africa is steadily increasing, the study, led by The University of Manchester in collaboration with regional organisations, offers a glimmer of hope at a resolution.

The research, published today in the journal , moves away from traditional water-centric agreements, and presents a detailed simulation of the combined energy-water system to reveal how different scenarios of international energy trades could help alleviate the Nile water conflict.

First author Dr Mikiyas Etichia from The University of Manchester, said: “Traditionally, water disputes in transboundary river basins like the Nile have been approached through a water-centric viewpoint. However, sharing benefits of water resources, such as hydro-generated electricity, crops and fisheries can result in a win-win situation.”

Co-author Dr Mohammed Basheer, Assistant Professor at the University of Toronto, added: “In the Nile Basin, energy-river basin benefit-sharing projects have been implemented in the past at a small scale, but detailed tools like the one presented in the paper can help create actionable large-scale proposals.”

At the heart of the dispute lies the Grand Ethiopian Renaissance Dam (GERD) - a large dam on the Blue Nile River in Ethiopia constructed to improve Ethiopia's electricity access and to export electricity to neighbouring countries. The project sparked tensions between Ethiopia, Sudan and Egypt over water rights and access.

The simulator, designed by the scientists using open-source technology, covers 13 East African countries, including those within the Nile Basin, to model potential energy trade agreements between Ethiopia, Sudan, and Egypt.

By increasing electricity trade, countries can simultaneously address water deficits, boost hydropower generation, reduce energy curtailment, and cut greenhouse gas emissions.

Corresponding author from The University of Manchester, said: “The energy trades tested in this study provide the countries a range of solutions that are likely in their national interest.

“The study highlights the value of detailed multisector simulation to unpick the complex interdependencies of large multi-country resource systems. Implementation of the arrangements proposed here would need to be further assessed from governance and legal perspectives to become viable proposals. If successful, they could contribute to sustainable resource management and regional stability.

“We are hopeful the new analytical tools or their results will be taken up by the negotiating parties.”