From Light Sources to Innovation Ecosystems: The First IUPAP Hackathonino at IPAC2026

Connecting Students, Research Infrastructures, and Industry Through Accelerator Science

Large-scale research infrastructures such as synchrotron light sources and neutron facilities are increasingly recognised not only for their scientific output, but also for their role in training talent, strengthening international collaboration, and building scientific capacity across regions.

This broader mission was clearly visible at the International Particle Accelerator Conference (IPAC2026), held in Deauville, France, from 17–20 May 2026, where the Working Group on Particle Accelerators (WG14) of the International Union of Pure and Applied Physics (IUPAP) launched the first Hackathonino — an interactive initiative designed to connect students, research infrastructures, and industry around real accelerator challenges.

Image above: The 1st Prize team: (E) Develop an educational idea to introduce students
to accelerator simulations
, by Sverker Werin & Francesca Curbis, MAXIV
Maria Ünal, SOLARIS National Synchrotron Radiation Centre, PL
Helena Alamprese, Michigan State University, US
Hiiro Moriyama, University of Oxford, UK
Laury Batista, Paris Saclay University, CEA, FR
Weibo Hu, University of Science and Technology, CN
Wiktoria Wiatrowska, SOLARIS, PL


Supported by IUPAP WG14, the Accelerator Science and Technology Industry Permanent Forum (AIPF), Big Science Sweden, and industrial partners including ScandiNova, the Hackathonino demonstrated how relatively small, targeted initiatives can create lasting impact for the global accelerator and light-source community.

For organizations such as ESS, MAX IV, ESS , MAX IV , SNS, CERN, FZJ, University of Johannesburg and MIT, the event highlighted an increasingly important dimension of research infrastructures: their ability to serve as engines for capacity building, knowledge transfer, and international scientific development.

IUPAP and the Global Accelerator Community

As one of the official sponsors of IPAC, IUPAP has long played a central role in promoting international cooperation in physics. Through WG14, dedicated to particle accelerators, the organisation actively supports education, mobility, and collaboration across the global accelerator landscape.

The Hackathonino represented a practical example of this mission in action. Rather than focusing solely on conference presentations, the initiative created a space where students and early-career researchers could work directly on operational and scientific challenges inspired by major research infrastructures.

More than 65 students expressed interest in participating and were organised into multidisciplinary teams supported by mentors from laboratories, universities, and industry.

The Hackathonino focused on key accelerator-related themes connected to the broader missions of light sources and neutron facilities, including applications in Environment & Materials, Life Sciences, Energy, digitalisation, and accelerator operations. Nine challenges were prepared based on real research-infrastructure conditions and operational needs.

The challenges covered a broad and interdisciplinary spectrum, ranging from control-room first-fault identification and AI-assisted accelerator diagnostics to educational tools, new developments for accelerator infrastructures, medical accelerators, neutron scattering applications, large language models (LLMs), and quantum interfaces. Together, they reflected the diversity of expertise now required across modern accelerator-based facilities.

Students described the Hackathonino as a rare opportunity to collaborate across disciplines and sectors while gaining direct exposure to the research-infrastructure environment. “It was an amazing experience to work together with students, scientists, and industry around real accelerator challenges,” one participant commented. “We learned not only technical skills, but also much more about how research infrastructures operate and the career opportunities they offer.”

The initiative demonstrated how IUPAP can help create low-barrier, internationally accessible opportunities for young scientists to engage directly with accelerator-based science and technology.

ESS and Capacity Building Through Research Infrastructures

The Hackathonino also strongly reflected the broader mission of the European Spallation Source (ESS) and other major facilities: building sustainable scientific ecosystems that extend beyond a single laboratory.

As Europe’s next-generation neutron source, ESS is not only developing advanced accelerator and neutron technologies, but also investing heavily in competence development, training, digitalisation, and international collaboration. Events such as the Hackathonino align naturally with this vision by exposing students to real operational challenges while connecting them with experts across facilities and disciplines.

Several Hackathonino challenges were directly relevant to the evolving needs of neutron and synchrotron facilities, including reliability, diagnostics, AI-assisted operations, educational outreach, and knowledge transfer between laboratories. These are strategic areas where ESS, together with partner facilities such as MAX IV, contributes to a growing Nordic and European ecosystem for accelerator-based science.

The participation of students and mentors from different continents also reflected the international model on which ESS itself is built. Remote mentoring from institutions such as the University of Johannesburg and MIT demonstrated how expertise can be shared globally, independent of geography.

For emerging facilities and developing scientific communities, this type of distributed collaboration is increasingly important. It allows knowledge developed at large infrastructures to support broader international capacity building and helps create pathways into accelerator science for students who may not yet have direct access to major facilities.

2nd Prize Team: (B) RF window failure detection, by John Moss, Charles Peters, Sung-Woo Lee, SNS
Axel Perez Ruiz, Université Paris-Saclay, CNRS/IN2P3, IJCLab, Orsay, FR
Dinghui Su, Shanghai Institute of Applied Physics, Shanghai, CN
Johan Lundquist, MAX IV/Lund University, Lund, SE
Joel Valerian, University of Melbourne, AU

Light Sources and Knowledge Transfer Across Regions

One of the strongest themes to emerge from the Hackathonino was the importance of transferring expertise across the global light-source community.

Several teams explored how operational experience and accelerator knowledge from established facilities could support newer or developing infrastructures. This theme culminated in the winning project, which focused on leveraging expertise from MAX IV to support education and accelerator design activities connected to the SESAME synchrotron in Jordan.

The project illustrated how facilities within the Lightsources.org community can contribute not only to scientific discovery, but also to regional scientific development and long-term human capacity building.

This model is closely aligned with the missions of both ESS and IUPAP: strengthening international scientific cooperation while creating opportunities for future generations of researchers and engineers.

For the light-source community, the Hackathonino also demonstrated the value of creating informal, highly collaborative environments where students can engage directly with real-world infrastructure challenges. Even within a short timeframe, participants produced solutions and concepts that impressed mentors, industry representatives, and the independent jury.

3rd Prize Team: (F) Decision-Making for a Compact Neutron Source (CANS) Upgrade Strategy, by Mina Akhyani (FZJ)
Jordan Byrne,
Aras Amini,
Oliver Betteridge,
Filip Peczek,

Building Future Scientific Ecosystems

The Hackathonino reinforced a broader lesson about modern accelerator-based facilities.

Research infrastructures such as ESS, MAX IV, ESRF, SOLARIS, and SESAME are far more than experimental platforms. They are ecosystems where science, technology, education, and industry intersect. By connecting students, researchers, engineers, and companies, they help create resilient international networks capable of addressing future scientific and societal challenges.

The initiative also showed that impactful capacity-building activities do not necessarily require large or complex structures. A lightweight and flexible format, supported by committed mentors and international organisations such as IUPAP, can already generate meaningful collaboration and long-term engagement.

As discussions begin around future editions of the Hackathonino, the event offers a promising model for how the accelerator and light-source community can continue strengthening international cooperation, supporting emerging talent, and expanding access to accelerator science worldwide.

In this sense, the Hackathonino was more than a student competition. It was a demonstration of how facilities like ESS and the broader Lightsources.org community can help shape the next generation of global scientific collaboration.

Find out more about IUPAP Working Group 14 here

Follow IUPAP on LinkedIn: IUPAP Accelerator Science Communication: Posts | LinkedIn

CNPEM study reveals novel enzyme mechanism with potential for biofuels and biotechnology

The new discovery will aid in the development of more efficient and sustainable technologies for bioenergy generation

A study led by researchers from the Brazilian Center for Research in Energy and Materials (CNPEM), located in Campinas (SP), has identified a novel molecular mechanism that explains how enzymes degrade beta-glucans, a class of carbohydrates found in fungi, algae, and plants, with great relevance for industrial and energy applications. The research involved approximately 18 collaborators from the LNBR (Brazilian Biorenewables National Laboratory) and the LNLS (Brazilian Synchrotron Light Laboratory), both part of CNPEM, in addition to external researchers from Unicamp and universities in Spain and Canada.

Published in the scientific journal Nature Communications, the work describes, for the first time, a process called processive catalysis applied to the breakdown of these compounds. In this mechanism, the enzyme acts continuously on the same molecular chain, without detaching itself after each stage of the reaction, which makes the process more efficient.

According to researcher Mariana Morais, one of the study coordinators, the work utilized various techniques and equipment at CNPEM, including directed mutagenesis techniques and kinetic analyses. The research also included high-resolution X-ray crystallography experiments conducted at Sirius, CNPEM’s particle accelerator, as well as computer simulations carried out on the Santos Dumont supercomputer, at the National Laboratory for Scientific Computing (LNCC).

“This integration allowed for the observation, at the atomic level, of all stages of the enzymatic process, from substrate recognition to product release and the restart of the catalytic cycle”, says Morais.

Read more on the CNPEM website

Image: Representation of the enzyme forming a catalytic tunnel that enables interaction with the beta-glucan chain and its continuous processing

NSRRC Users honoured at MOE 2025 National Awards Ceremony

On March 23, the Ministry of Education (MOE) held the award ceremony for the 2025 National Chair Professorships, National Award for Distinguished Contribution to Industry-Academia Cooperation, and Academic Awards. Five NSRRC users were among the recipients.

Prof. Hsin-Lung Chen, Distinguished Chair in the Department of Chemical Engineering at Tsing Hua University (NTHU), received the National Chair Professorship in Engineering and Applied Sciences. A leading scholar in polymer physics, he has long contributed to theoretical development, textbook writing, and industry-academia collaboration. His research has been widely applied in critical materials and industrial technologies, enhancing the international impact of Taiwan’s materials research.

Prof. Bing-Joe Hwang, Chair Professor in the Department Chemical Engineering at the National Taiwan University of Science and Technology, founder and director of the Sustainable Electrochemical Energy Development Center, and NSRRC board member and adjunct scientist, received the National Award for Distinguished Contribution to Industry-Academic Cooperation in Engineering. He pioneered the “anode-free lithium battery,” developed high-energy-density and high-safety technologies, and promoted high-value hydrogen electrolysis, with extensive industrial applications and patents.

Two NSRRC users were awarded the Academic Award in Mathematics and Natural Sciences. Prof. Chen-Wei Liu, Chair Professor in the Department of Chemistry at National Dong Hwa University, is an international pioneer in metal cluster chemistry. His research combines fundamental innovation with practical application, offering forwarded-looking contributions to catalysis and carbon-reduction technologies. Prof. Ying-Hao Chu, Chair Professor and Department Chair of Materials Science and Engineering at NTHU, specializes in oxide heterostructures and flexible mica-based electronic components, with highly cited work that lays a critical foundation for next-generation electronic devices. In Engineering and Applied Sciences, Prof. Chih-Huang Lai, Chair Professor and Vice Dean of the Institute of Semiconductor at NTHU, was recognized for his research in spintronics and magnetic materials, including advanced memory devices and thin-film solar technologies, as well as Taiwan’s first 12-inch MRAM production line.

Read more on the NSRRC website

Shining a light on the Australian Synchrotron’s $100M BRIGHT beamlines

A special inaugural event held by ANSTO at its Australian Synchrotron for more than 30 funding organisations has showcased the first of the $100 million BRIGHT Program’s brand new, state-of-the-art beamlines.

The event, at the Clayton facility in Melbourne on Friday 9 December, also marked the official welcoming of the BRIGHT Program’s latest funding partnership with the University of South Australia as the 32nd contributor to provide additional capital funding for the construction of new beamlines.

Since 2018, the BRIGHT Program has received joint funding from leading Australian universities and medical research institutes, New Zealand government, universities and crown research institutes, via the New Zealand Synchrotron Group, and the Australian government through the CSIRO, Defence Science and Technology Group, and ANSTO.

The program is enabling the design, installation, and commissioning of eight new beamlines at the Australian Synchrotron to meet the growing demand of these sophisticated technologies by Australian and international researchers and industry partners.

Read more on the ANSTO website

Image: Prof Michael James, Senior Principal Scientist , Australian Synchrotron and Prof Enzo Lombi  of the University of South Australia. UniSA has announced funding support for the program.

Experiment reveals new options for synchrotron light sources

An international team has shown through a sensational experiment how diverse the possibilities for employing synchrotron light sources are. Accelerator experts from the Helmholtz-Zentrum Berlin (HZB), the German federal metrology institute Physikalisch-Technische Bundesanstalt (PTB), and Tsinghua University in Beijing have used a laser to manipulate electron bunches at PTB’s Metrology Light Source so that they emitted intense light pulses having a laser-like character. Using this method, specialised synchrotron radiation sources would potentially be able to fill a gap in the arsenal of available light sources and offer a prototype for industrial applications. The work was published on 24 February 2021 in the leading scientific publication Nature.

The most modern light sources for research are based on particle accelerators. These are large facilities in which electrons are accelerated to almost the speed of light, and then emit light pulses of a special character. In storage-ring-based synchrotron radiation sources, the electron bunches travel in the ring for billions of revolutions, then generate a rapid succession of very bright light pulses in the deflecting magnets. In contrast, the electron bunches in free-electron lasers (FELs) are accelerated linearly and then emit a single super-bright flash of laser-like light. Storage ring sources as well as FEL sources have facilitated advances in many fields in recent years, from deep insights into biological and medical questions to materials research, technology development, and quantum physics.

Combining the virtues of both systems

Now a Sino-German team has shown that a pattern of pulses can be generated in a synchrotron radiation source that combines the advantages of both systems. The synchrotron source delivers short, intense microbunches of electrons that produce radiation pulses having a laser-like character (as with FELs), but which can also follow each other closely in sequence (as with synchrotron light sources).

Read more on the HZB website

Image credit: © Tsinghua University