Lightsource research on SARS-CoV-2

Coronaviruses are a family which includes the common cold, SARS, MERS and the current outbreak of the disease COVID-19, caused by the SARS-CoV-2 virus.
Several facilities of our collaboration have started research about SARS-CoV-2 virus or launched open calls for rapid access. This post will be updated regularly.

Publications on SARS-CoV-2 Rapid Access


Published articles

2021.12.09 Diamond Light Source (UK) article on their website: Trigger of rare blood clots with AstraZeneca and other COVID vaccines found by scientists

2021.11.06 APS at Argonne National Laboratory (USA) article on their website: Advanced Photon Source Helps Pfizer Create COVID-19 Antiviral Treatment

2021.11.04 ESRF (France) article on their website: EBS X-rays show lung vessels altered by COVID-19 (

2021.08.11 BESSY II at HZB (Germany) article on their website: HZB coordinates European collaboration to develop active agents against Corona – Helmholtz-Zentrum Berlin (HZB) (

2021.08.10 Canadian Light Source article on their website: Developing antiviral drugs to treat COVID-19 infections

2021.07.06 European XFEL (Germany) article on their website: XFEL: Insights into coronavirus proteins using small angle X-ray scattering

2021.06.21 Diamond Light Source (UK) article on their website: X-ray fluorescence imaging at Diamond helps find a way to improve accuracy of Lateral Flow Tests

2021.06.17 Australian Synchrotron (ANSTO) article on their website: Research finds possible key to long term COVID-19 symptoms

2021.05.11 Swiss Light Source at PSI (Switzerland) article on their website: How remdesivir works against the coronavirus

2021.05.28 SLAC (CA / USA) article from the Stanford Synchrotron Radiation Lightsource (SSRL): Structure-guided Nanobodies Block SARS-CoV-2 Infection | Stanford Synchrotron Radiation Lightsource

2021.05.21 ALS (USA) article on their website: Guiding Target Selection for COVID-19 Antibody Therapeutics

2021.05.21 ESRF (France) article on their website: Combatting COVID-19 with crystallography and cryo-EM (

2021.05.18 ALS (USA) article on their website: How X-Rays Could Make Reliable, Rapid COVID-19 Tests a Reality | Berkeley Lab (

2021.04.27 Canadian Light Source (Canada), video on their website Investigating the long-term health impacts of COVID-19 (

2021.04.22 Synchrotron Light Research Institute (Thailand), article on their website: SLRI Presented Innovations Against COVID-19 Outbreak to MHESI Minister on His Visit to a Field Hospital at SUT

2021.04.16 Diamond Light Source (UK) article on their website: Massive fragment screen points way to new SARS-CoV-2 inhibitors

2021.04.14 SLAC (CA / USA), article also with news about research at Stanford Synchrotron Radiation Lightsource (SSRL):Researchers search for clues to COVID-19 treatment with help from synchrotron X-rays

2021.04.07 Diamond Light Source (UK), article on their website: First images of cells exposed to COVID-19 vaccine – – Diamond Light Source

2021.04.05 ALS (CA/USA) blog post on Berkeley Lab Biosciences website: New COVID-19 Antibody Supersite Discovered

2021.04.02 PETRA III at DESY (Germany), article and animation on their website DESY X-ray lightsource identifies promising candidate for COVID drugs

2021.03.26 Diamond Light Source (UK), article on their website: New targets for antibodies in the fight against SARS-CoV-2

2021.02.23 Australian Light Source (ANSTO) Australia, article on their website: Progress on understanding what makes COVID-19 more infectious than SARS

2020.12.02 ESRF (France), article and video on their website: ESRF and UCL scientists awarded Chan Zuckerberg Initiative grant for human organ imaging project

2020.11.10 Diamond Light Source (UK), article and video on their website: From nought to sixty in six months… the unmasking of the virus behind COVID-19

2020.10.29 Canadian Light Source (Canada) video on their website: Studying how to damage the COVID-19 virus

2020.10.07 National Synchrotron Light Source II (NSLS-II) at Brookhaven Lab (NY / USA) article on their website: Steady Progress in the Battle Against COVID-19

2020.10.07 Diamond Light Source (UK), article on their website: Structural Biology identifies new information to accelerate structure-based drug design against COVID-19

2020.10.06 MAX IV (Sweden), article on their website: Tackling SARS CoV-2 viral genome replication machinery using X-rays

2020.08.31 SLAC (CA / USA), article also with news about research at Stanford Synchrotron Radiation Lightsource (SSRL): SARS-CoV-2 Spike Protein Targeted for Vaccine

2020.08.27 Diamond Light Source (UK), article on their website: Structural Biology reveals new target to neutralise COVID-19

2020.08.27 Canadian Light Source (Canada) video on their website: Developing more effective drugs

2020.08.25 Australian Synchrotron (ANSTO) (Australia) article on their website: More progress on understanding COVID-19

2020.08.24 DESY (Germany) article on their website: PETRA III provides new insights into COVID-19 lung tissue

2020.08.11 Australian Synchrotron (ANSTO) (Australia) article on their website: Unique immune system of the alpaca being used in COVID-19 research

2020.07.30 Swiss Light Source at PSI (Switzerland) article on their website: COVID-19 research: Anti-viral strategy with double effect

2020.07.29 National Synchrotron Light Source II (NSLS-II) at Brookhaven Lab (NY / USA) article on their website: Ready to join the fight against COVID-19.

2020.07.20 ALBA (Spain) article on their website: A research team from Centro de Investigaciones Biológicas Margarita Salas (CIB-CSIC) uses synchrotron light to study the possible effect of an antitumoral drug of clinical use over the viral cycle of SARS-CoV-2 coronavirus. 

2020.07.15 ALS (USA) article on their website: Antibody from SARS Survivor Neutralizes SARS-CoV-2

2020.07.14 Diamond Light Source (UK), article on their website: Engineered llama antibodies neutralise Covid-19 virus

2020.06.17 European XFEL (Germany) article on their website: Pulling Together: A collaborative research approach to study COVID-19

2020.06.15 European XFEL (Germany) article on their website: Open Science COVID19 analysis platform online

2020.06.09 APS at Argonne National Laboratory (USA) article on their website: Novel Coronavirus Research at the Advanced Photon Source

2020.05. Società Italiana di Fisica publishes an article about research done at Elettra Sincrotrone Trieste (Italy) and the Advanced Light Source (CA / USA): Accelerator facilities support COVID-19-related research

2020.05.27 Diamond Light Source (UK), new animation video demonstrating the work that has been done at Diamond’s XChem facilities.

2020.05.19 Advanced Light Source (CA / USA), article about their latest results: X-ray Experiments Zero in on COVID-19 Antibodies

2020.05.15 Swiss Light Source (Switzerland), article about their first MX results: First MX results of the priority COVID-19 call

2020.05.14 MAX VI (Sweden), article about their research: Tackling SARS CoV-2 viral genome replication machinery using X-rays

2020.05.14 CHESS (NY/USA), article: CHESS to restart in June for COVID-19 research

2020.05.14 the LEAPS initiative brings together many of our European members. The initative published this brochure: Research at LEAPS facilities fighting COVID-19

2020.05.12 Diamond Light Source (UK), article about their collaboration in a consortium: UK consortium launches COVID-19 Protein Portal to provide essential reagents for SARS-CoV-2 research

2020.05.11 Advanced Photon Source (IL/USA), article: Studying Elements from the SARS-CoV-2 Virus at the Bio-CAT Beamline

2020.05.07 European XFEL (Germany), article: European XFEL open for COVID-19 related research

2020.05.06 ESRF (France), article: World X-ray science facilities are contributing to overcoming COVID-19

2020.04.29. BESSY II at HZB (Germany), article: Corona research: Consortium of Berlin research and industry seeks active ingredients

2020.04.29. Swiss Light Source and SwissFEL at PSI (Switzerland), interview series on the PSI website: Research on Covid-19

2020.04.23. PETRA III at DESY (Germany), article: X-ray screening identifies potential candidates for corona drugs

2020.04.21. MAX IV (Sweden), article: BioMAX switches to remote operations in times of COVID-19

2020.04.16. SLAC (CA / USA), article also with news about research at Stanford Synchrotron Radiation Lightsource (SSRL): SLAC joins the global fight against COVID-19

2020.04.15 Berkeley National Lab (CA/ USA), article with a focus on the research at the Advanced Light Source (ALS):
Staff at Berkeley Lab’s X-Ray Facility Mobilize to Support COVID-19-Related Research

2020.04.07 Diamond Light Source (UK), article: Call for Chemists to contribute to the fight against COVID-19
Crowdfunding: COVID-19 Moonshot

2020.04.07. ANSTO’s Australian Synchrotron (Victoria), article: Aiding the global research effort on COVID-19

2020.04.06. National Synchrotron Light Source II (NSLS-II) at Brookhaven Lab (NY / USA), article: Brookhaven Lab Mobilizes Resources in Fight Against COVID-19

2020.04.02. BESSY II at HZB (Germany), article: Corona research: Two days of measuring operation to find the right key

2020.03.31 Diamond Light Source (UK), article: Jointly with Exscientia and Scripps Research, Diamond aims to accelerate the search for drugs to treat COVID-19

2020.03.27 Argonne National Laboratory with the Advanced Photon Source (APS) and other facilities on-site (IL / USA), article: Argonne’s researchers and facilities playing a key role in the fight against COVID-19

2020.03.27 ANSTO’s Australian Synchrotron (Victoria), article and video: Helping in the fight against COVID-19

2020.03.25 PETRA III at DESY (Germany), article: Research team will X-ray coronavirus proteins

2020.03.23 Diamond Light Source (UK) releases its first animation explaining: SARS-CoV-2 Mpro Single Crystal Crystallography

2020.03.25 CERN Courrier (Switzerland) article about synchrotron research on SARS-CoV-2, written by Tessa Charles (accelerator physicist at the University of Melbourne currently based at CERN, completed her PhD at the Australian Synchrotron): Synchrotrons on the coronavirus frontline

2020.03.19 BESSY II at Helmholtz-Zentrum Berlin (Germany), research publication: Coronavirus SARS-CoV2: BESSY II data accelerate drug development

2020.03.19 BESSY II at Helmholtz-Zentrum Berlin (Germany), technique explanation webpage: Protein crystallography at BESSY II: A mighty tool for the search of anti-viral agents

2020.03.16 Diamond Light Source (UK), article on their “Coronavirus Science” website: Main protease structure and XChem fragment screen

2020.03.12. Elettra Sincrotrone (Italy), article on their website: New project to fight the spread of Coronavirus has been approved

2020.03.05. Advanced Photon Source (IL / USA), article on their website: APS Coronavirus Research in the Media Spotlight

2020.03.05. Advanced Photon Source (IL / USA), research publication: “Crystal structure of Nsp15 endoribonuclease NendoU from SARS-CoV-2,” bioRXiv preprint  DOI: 10.1101/2020.03.02.968388, Article on their website (source: Northwestern University): New Coronavirus Protein Reveals Drug Target

Facility Covid-19 research pages

The Canadian Light Source (Canada) has created a specific page highlighting their COVID-19 research: COVID-19 research at the Canadian Light Source

BESSY II at HZB (Germany) has set up a page where it shows their contributions to the research on SARS-CoV-2 , see here

DESY (Germany) has launched a new page dedicated to Corona Research:

Diamond Light Source (UK) has created a specific website “Coronavirus Science” with platforms for various audiences: scientific community, general public and the media:

ELETTRA (Italy) has launched a new page dedicated to COVID-19 research:

The Photon Division of PSI (Switzerland) have collated many information linked to their institute on coronavirus-relevant research (recent publications, rapid access…):

ALBA (Spain) has set up a dedicated area on their website for information related to COVID-19 (rapid access, publications etc):

The ALS (CA/USA) has created a page listing all COVID-19 related research:

Rapid access

Scientists can apply for rapid access at following facilities (only member facilities of are referenced, the most recent published (or updated) call is mentioned first).

  • The National Synchrotron Light Source II (NSLS-II) in NY / USA is offering a streamlined and expedited rapid access proposal process for groups that require beam time for structural biology projects directly related to COVID-19. The Center for Biomolecular Structure team is supporting remote macromolecular crystallography experiments at Beamlines 17-ID-1 (AMX) and 17-ID-2 (FMX) in this research area. To submit a macromolecular crystallography proposal for COVID-19 related research, use the following form:
  • The Advanced Photon Source (APS) at Argonne National Laboratory in IL / USA  user program is operational to support:

·         Research on SARS-CoV-2 or other COVID-19-related research that addresses the current pandemic.

·         Critical, proprietary pharmaceutical research.

·         Mail-in/remote access work for any research involving low-risk samples and most medium-risk samples (as defined on the APS ESAF form).

·         Limited in situ research (set-up with one person, and ability to carry out majority of experiment safely remotely)

PETRA III at DESY in Germany offers also Fast Track Access for Corona-related research:

Australian Synchrotron at ANSTO makes its macromolecular crystallography beamlines available to structural biologists in response to the COVID-19 pandemic:

North American DOE lightsource facilities have created a platform to enable COVID-19 research. There you can find ressources and points of contact to request priority access:
Structural Biology Resources at DOE Light Sources

Elettra Sincrotrone Trieste in Italy opens to remote acces following beamlines: XRD1, XRD2, SISSI-BIO and MCX thanks to an CERIC-ERIC initiative:

The Advanced Light Source (ALS) at LBNL in California / USA has capabilities relevant to COVID-19 and researchers can apply through their RAPIDD mechanism:

ALBA Synchrotron in Spain offers a COVID-19 RAPID ACCESS on all beamlines:

SOLARIS Synchrotron in Poland gives acces to its Cryo Electron Microscope thanks to an CERIC-ERIC initiative:

Swiss Light Source and Swiss FEL at PSI in Switzerland offer priority access to combating COVID-19:

Diamond Light Source in the United Kingdom opened also a call for rapid access:

Image: Electron density at the active site of the SARS-CoV-2 protease, revealing a fragment bound
Credit: Diamond Light Source

Reshaping the world of research through remote experimentation

We all remember the impact of stay-at-home-orders on our everyday lives in spring 2020. However, it was not only restaurants, salons, flower shops, and bookstores that had to close their doors. National user research facilities shut down most operations, closing the doors to thousands of visiting scientists, and bringing research on new batteries, pharmaceutical drugs, and many other materials to a grinding halt, at a time when the country needed these facilities more than ever. So, seven user research facilities decided to form a team of experts, the Remote Access Working Group (RAWG), to figure out how these facilities could keep the science going even when the researchers couldn’t access them in person.

The solution is as simple as it is difficult. Research facilities that serve visiting researchers have to create an environment in which experiments can be run from afar – with nearly no human interaction. Scientists have dubbed this new way of doing research remote experimentation. While each facility started the unexpected journey to remote experimentation on their own, the RAWG has brought all the different ideas together to help each facility overcome the numerous challenges encountered along the way.

Most challenges result from the nature of how these facilities operate. All seven facilities are neutron or light sources funded by the U.S. Department of Energy (DOE) Office of Science. This means they generate highly intense beams of neutrons or x-rays that visiting scientists use to study the inner workings of materials. These visiting researchers, or users, collaborate with facility staff to study everything from ancient mummies to novel quantum materials, generating new knowledge daily.

The Desolation of COVID-19

In a world before COVID-19, these user facilities were a hub for research teams. Scientists traveled to them, used unique tools to study their materials, worked with brilliant people on all kinds of scientific questions, then left the facility with new data that could answer these questions. With the ongoing pandemic, travelling to a facility in a different state—let alone a different country—is not an option. And with this, the well-established cycle of creating new knowledge was broken.

To re-start this cycle without going back to the old ways, each facility was confronted with a host of challenges that ranged from how to control an experiment from afar to how to get the samples to the facility in the first place. This was just the tip of the iceberg of issues the pandemic created. The RAWG’s mission is to share experiences and solutions for these issues among the facilities.

The Fellowship of Remote Experimentation

The RAWG was built upon the existing collaboration of the five DOE light source facilities. Their directors meet twice a year to discuss common challenges so that they can form teams to tackle various issues. So, it was only natural to join forces again when COVID-19 hit.

Read more on the Brookhaven website

Image: Beamline scientist, Olaf Borkiewicz from the APS, is wearing a Hololens for a virtual session of National School on Neutron and X-Ray Scattering held each summer. (Note: This photo was taken while fully vaccinated individuals were allowed to not wear masks indoors.) 

Credit: APS, Argonne National Laboratory

Pushing the limits of science and technology every day

Silvia Forcat is a mechanical engineer working at MAX IV in Sweden. Her role as floor coordinator involves coordinating a wide range of projects for the beamlines. Silvia says, “What inspires me to do my job is to know that I’m contributing to this country’s research and in science in general. There are so many experiments happening in this type of facility and many of them turn into publications. Also my dream would be that one of these publications will get the Nobel Prize. You never know!”

One of the most exciting things is being part of the community

FERMI #LightSourceSelfie

Michele Manfredda is an Italian physicist working at FERMI, the Free Electron laser Radiation for Multidisciplinary Investigations, near Trieste in Italy. Michele words in the PADReS group, which stands for photon analysis delivery and reduction system. The group’s role is to make experiments possible for FERMI users and they look after the optics and diagnostics of the light. As Michele explains, the role involves working in different places and with different teams. His #LightSourceSelfie takes viewers on a fantastic tour of FERMI.

Michele explains that he was first attracted to this field of research by the fact that simple things are done in a very complicated way. When it comes to advice that Michele would give those starting out in their careers, he says, “The advice I would give to someone entering the world of large facilities is go for it. They are crazy environments and you will enjoy it, but remember large facilities can be very time-consuming. So always keep in mind what you can give to science and what science can give you back. Also, find the right people. People you can learn from and people you like to work with because remember, science facilities are wonderful creations but the most wonderful creation is your career, your life. So, as an optical physicist, I tell you don’t be focused on your sample only, be focused mostly on you.”

Cyborg plants: roots can store energy

Researchers of the HyPhOE European Project have developed biohybrid plants with an electronic root system, which could be used to store energy or as electronic sensors. This study proved the integration of circuits and electrochemical devices into the plants without damaging them, so that they continued to grow and adapt to their new hybrid state. Experiments at the NCD-SWEET beamline of the ALBA Synchrotron were crucial to shed light on the plant-based technology field.

Plants are amazing machines: not only they are solar-powered and convert carbon dioxide into chemical energy, but they are also capable of producing cellulose, the most abundant biopolymer on Earth, and can self-repair via tissue regeneration. All these factors make plants the perfect candidates for developing biohybrid technological systems, integrating smart materials and devices into their structure.

In a recent publication, the team led by researcher Eleni Stavrinidou from the Linköping University (Sweden) has presented a study about biohybrid plants with an electronic root system. They found out how to integrate circuits and electrochemical devices into the plants without damaging them, so that they can continue to grow and develop, and use them as supercapacitors or electronic sensors.

The results pave the way for using roots for energy storage and the creation of a root-based supercapacitor. Supercapacitors based on conductive polymers and cellulose offer an environmentally friendly alternative for energy storage that may also be more affordable than those currently in use. As a proof of concept, the research team built a supercapacitor where the roots served as the charge storage electrodes.

Another possible application of these plant-based systems are electronic sensors. For example, by adding a humidity sensor in the root, the information could be transmitted through the electronic root network to an intelligent system, which could act accordingly by increasing or decreasing the frequency of irrigation. These discoveries open the door to new intelligent stimulus-response applications.

This study is part of the European project Hybrid Electronics Based on Photosynthetic Organisms (HyPhOE), which involves several European institutions and aims to achieve a symbiosis between photosynthetic organisms and technology.

Read more on the ALBA website

Image: Bean plant before, during and after functionalization

New technology on the beamlines gifts sleep back to staff and users

Dohyun Moon, Beamline Senior Scientist at Pohang Light Source II in Korea, and Michele Manfredda, Scientist in the Photon Transport Group at FERMI in Italy, talk about new technology that is delivering remote control, automation and robot systems. All of these advances reduce the need for humans to be on the beamlines round the clock.

As Michele says, “The best science that we can do at a light source is the one that we do when we sleep and the machines and computers work.”

Light sources have demonstrated huge adaptability during the pandemic

Johanna Hakanpää is the beamline scientist for P11, one of the macromolecular crystallography beamlines at PETRAIII at DESY in Hamburg. Originally from Finland, she studied chemistry and then did her masters and PhD work in protein crystallography. Johanna was drawn to the field because she wanted to understand how life really works. Supporting health related research is important to her and Johanna is especially inspired by her son who is a patient of celiac disease. Together they hope that one day, with the help of science, he will be able to eat normally without having to think about what is contained in his food. Johanna started her light source journey as a user and was really impressed by the staff scientists who supported her during her experiments. This led her to apply for a beamline scientist position and she successfully made the transition, learning the technical aspects of the beamlines on the job.

In her #LightSourceSelfie, Johanna highlights the adaptability of light sources during the pandemic as a key strength. Being part of a team that was able to keep the lights on for users via remote experiments is a reflection of the commitment that Johanna and her colleagues have when it comes to facilitating science. Thousands of staff at light sources all around the world have shown the same commitment, ensuring scientific advances can continue. This is particularly true for vital research on the SARS-CoV-2 virus itself. Learn more about this research here:

I am doing science that is more important than my sleep!

NSLS-II #LightSourceSelfie

Dan Olds is an associate physicist at Brookhaven National Laboratory where he works as a beamline scientist at NSLS-II. Dan’s research involves combining artificial intelligence and machine learning to perform real-time analysis on streaming data while beamline experiments are being performed. Often these new AI driven methods are critical to success during in situ studies of materials. These include next generational battery components, accident safe nuclear fuels, catalytic materials and other emerging technologies that will help us develop clean energy solutions to fight climate change.

Dan’s #LightSourceSelfie delves into what attracted him to this area of research, the inspiration he gets from helping users on the beamline and the addictive excitement that comes from doing science at 3am.

Blowing in the wind

Monitoring dust from legacy mine tailings to keep communities safe

Queen’s university researchers have studied dust blown from legacy mine tailings at the Giant Mine in Yellowknife, NWT and determined vital information to inform future remediation efforts.

Using the CLS@APS, the researchers were able to determine the chemical form of arsenic in dust particles sourced from the Giant Mine tailings which intermittently blow into nearby communities.

“The synchrotron is really useful for looking at dust because you have this really tiny micron scale beam that you can focus on individual dust particles and get really good data,” said Queen’s researcher Alex Bailey, who conducted the study as part of her Master’s.

Giant Mine is a decommissioned gold mine located 5 km North of Yellowknife that is currently being remediated. The main concern around this site is the existence of toxic-to-humans arsenic trioxide which was formed as a byproduct of ore processing in the 1950s and 60s. Arsenic trioxide had been previously found in local soils and lake sediments, and there was a concern from local residents that arsenic trioxide may be present in dust generated from surface tailings which intermittently blows into the community. It was important for the wellbeing and peace of mind of nearby community members to understand what dust from these tailings might carry.

By analyzing dust-sized material from the surface of the mine tailings and dust captured from a strategic location using detailed mineralogical analysis, synchrotron, and more conventional techniques, the team was able to identify what forms the arsenic would take and its implications for human health.

Read more on the CLS website

Image: Alex Bailey at the APS synchrotron collecting uXRD and uXRF data for sieved tailings dust samples

Science that just can’t wait until morning!

We know by now that coffee ranks highly on the list of things that help get light source users through their night shifts. This #LightSourceSelfie also include insights on positive thinking that can provide a much needed boost to get you through to the morning. These insights are brought to you from staff scientists at LCLS and NSLS-II in the USA and Diamond in the UK.

A supportive environment where you can learn and grow

Diamond’s #LightSourceSelfie

Nina Vyas (PDRA in correlative microscopy) and Nina Perry (Diamond Year in Industry student) filmed their #LightSourceSelfie on Diamond’s B24 beamline. B24 is a correlative cryo-imaging beamline offering 3D imaging with soft X-ray tomography (cryoSXT) complemented by super resolution fluorescence structured illumination microscopy (cryoSIM).

With only a few places in the world where researchers can access this type of equipment, working at B24 is exciting as the experiments being done are destined to have a positive impact on global health. In their #LightSourceSelfie, Nina and Nina recall their first day working on the beamline. They also describe the collaborative, supportive environment that exists, ensuring early career researchers are given the help they need to learn new skills.

Beyond B24, Diamond’s other beamlines are supporting science across a wide range of fields and, as Nina Perry says, “Some of the best things about working at light sources is the variety of science and experiments that are going on around you. We work in a biological lab but just next door there is chemistry and physics experiments, cultural heritage investigations and all sorts. The variety is endless.”

Learn more about Diamond’s B24 beamline here

A very powerful method that illuminates all research fields

Photon Factory at KEK – #LightSourceSelfie

Science is ever-evolving. This is particularly true in the world of light sources. As science, technology and computing advances are made, the machines that enable all the amazing scientific research advance too.

Kentaro Harada is an Associate Professor in the Beam dynamics and Magnets Group at KEK’s Photon Factory in Japan. As an accelerator scientist, his research is centred around magnets, power supplies, beam diagnostics and the operation of accelerators. The goals of Kentaro and his colleagues are to improve present accelerators and to design accelerators that will drive the science of the future. In his insightful #LightSourceSelfie, Kentaro says, “I think research and engineering are like the arts. The expression of uniqueness is first motivation. My goal is to do what only I can do.”


Experimental time at light sources is very precious. When a synchrotron or X-ray Free Electron Laser (XFEL) is in operating mode the goal is to allocate as many experimental shifts to external scientists and in-house research as possible. This includes night shifts! So, how do light source users survive the night shifts? #LightSourceSelfies brings you top tips from scientists based at, or using, 5 light sources in our collaboration – the ESRF, Advanced Light Source (ALS), ANSTO’s Australian Synchrotron, CHESS and the PAL XFEL.

ESRF appoints two new Directors of Research

Gema Martínez-Criado and Annalisa Pastore have been appointed new ESRF directors of research. Martínez-Criado will cover Condensed Matter and Physical and Material Sciences and Pastore Life Sciences, Chemistry and Soft Matter Science.

In its statement, the ESRF Council « unanimously approved the appointments, for a five-year period starting on 01 January 2022, of Dr Gema Martínez Criado, from the Spanish Research Council’s Materials Science Institute of Madrid, as Director of Research for Condensed Matter and Physical and Material Sciences, and of Professor Annalisa Pastore, from King’s College London University, as Director of Research for Life Sciences, Chemistry and Soft Matter Science. » The ESRF Council also « acknowledged the fact that both of these positions were being filled by female candidates of high calibre and expressed the full trust of the Council to continue to lead, in the coming year, the efforts required to fully capitalise on the world leading performances of the EBS storage ring and suite of beamlines.”

Read more on the ESRF website

Image: Gema Martínez-Criado (left) and Annalisa Pastore (right) have been appointed new ESRF directors of research

Credit: ESRF

We all love science!

#LightSourceSelfie from users of the Australian Light Source

Marta Krasowska (Associate Professor), Sarah Otto (PhD Student) and Stephanie MacWilliams (Early Career Researcher) are scientists based at the University of South Australia. They share a passion for soft matter research and conduct experiments at ANSTO’s Australian Synchrotron. Their research questions relate to structural ordering in soft matter and its relevance in applications such as food, personal care products, biomaterials and pharmaceuticals.

In their #LightSourceSelfie, Marta, Sarah and Stephanie discuss what attracted them to this area of research, how they felt the first time they conducted experiments at the Australian Synchrotron, the support they receive from the team based at the facility, their top tips for surviving night shifts and how their research will benefit from the new BioSAX beamline, which is part of the synchrotron’s major upgrade. When it came to single words to describe their research, they agreed on “Challenging, unpredictable and super rewarding!”

A welcoming and friendly community awaits!

Challenges are part of daily life at a synchrotron. In his #LightSourceSelfie, Tomasz talks about the importance of flexibility and how teams work together, adjusting to overcome challenges and get things done. When describing the synchrotron community, Tomasz says, “I think it is one of the most welcoming and friendly communities I have ever met.” Tomasz is driven by curiosity and the need to help others. He says, “Light sources are a nice combination of both because I can actually help people to solve their problems, their interesting scientific problems, and this gives me the everyday fulfilment.”

After over a decade working in infrared spectroscopy, Tomasz is excited that SOLARIS now has funding to construct an infrared beamline that will allow scientists to do cutting edge infrared imaging experiments of cells and tissues primarily for cancer diagnostics and understanding of biological systems.

To find out more about SOLARIS, visit

Promising new extra-large pore zeolite

An international research team, led in Spain by CSIC scientist Miguel A. Camblor, has discovered a stable aluminosilicate zeolite with a three dimensional system of interconnected extra-large pores, named ZEO-1.

Zeolites are crystalline porous materials with important industrial applications, including uses in catalytic processes. The pore apertures limit the access of molecules into and out of the inner confined space of zeolites, where reactions occur.

The research, published in Science, proved that ZEO-1 possesses these “extra-large” pores of around 10 Å (1 angstrom equals one ten billionth of a meter), but also smaller pores of around 7 Å, which is actually the size of traditional “large” pores.

Because of its porosity, strong acidity and high stability, ZEO-1 may find applications as a catalyst in fine chemistry for the production of pharmaceutical intermediates, in controlled substance release, for pollution abatement or as a support for the encapsulation of photo- or electroactive species (they react to light or an electric field).

“The crossings of its cages delimit super boxes, open spaces that can be considered nanoreactors to carry out chemical reactions in their confined space”, explains Miguel A. Camblor, researcher at the Instituto de Ciencia de Materiales de Madrid – CSIC.

To prove that this new zeolite may be useful in applications involving bigger molecules, researchers measured the adsorption to the inner surface of the zeolite of the dye Nile red – a big molecule. Moreover, they tested its performance in fluid catalytic cracking of heavy oil, a process the world still relies on to produce fuels. In both processes, the new zeolite performed better than the conventional large pore zeolite used nowadays.

This research is the result of an international collaboration between eight research centers in China, the USA, Sweden and Spain. The team was led by Fei-Jian Chen (Bengbu Medical College, China), Xiaobo Chen (China University of Petroleum), Jian Li (Stockholm University) and Miguel A. Camblor (Instituto de Ciencia de Materiales de Madrid, CSIC).

Structure determination with synchrotron light

The zeolite was discovered following a high-throughput screening methodology. The structure solution was challenging because the zeolite has a very complex structure, with a small crystal size (<200nm) but an exceedingly large cell volume.

“The combination of electron diffraction data with synchrotron powder X-ray diffraction data collected at the MSPD beamline of the ALBA Synchrotron and the Argonne National Laboratory (USA) made possible the accurate structure determination of ZEO-1″, says Camblor.

Read more on the ALBA website

Image: A perspective view of the extra-large pore of ZEO-1 along (100)