ABOUT
Understanding human health and disease requires structural insight across all scales, from the atomic to the tissue level, well beyond the classical boundaries of structural biology. Scattering and Imaging for Health Insights and New Evidence (SHINE) brings together expertise in electron microscopy and X-ray analysis to bridge the gap between molecular research and translational clinical applications, addressing fundamental questions in life, health, and disease.
The theme focuses on metabolic diseases, neurodegeneration, airway diseases, and transmittable diseases caused by viral and bacterial infections. By combining cryo-electron microscopy and tomography with synchrotron X-ray techniques, SHINE will develop integrated approaches that span the molecular, cellular, histological, and organ levels of organization. A particular priority is to facilitate clinicians and biomedical researchers in accessing and using large-scale facilities in Lund, including the cryo-EM infrastructure at MAX IV and the biomedical beamlines CoSAXS, BioMAX, and MicroMAX.
Across all of these aims, SHINE is committed to building lasting interdisciplinary collaborations that close critical knowledge gaps between basic science and clinical practice, maximizing the impact of existing capabilities and opening new avenues for diagnosis and treatment.
HAPPENING IN THEME
Welcome to LINXS Science Day 2026: a new epoch for large science at Science Village!
CORE GROUP
Scattering and lmaging for Health lnsights and New Evidence Core Group member and leader of WG2 (Airway diseases), LINXS Fellow
Professor, Lund University, Lund, Sweden
Prof. Uller is head of the research group Respiratory lmmunopharmacology at BMC, Lund with a clear translational research focus on airway diseases such as asthma and COPD as well as allergic rhinitis. The Uller team originally discovered an overproduction of the cytokine TSLP in the bronchial epithelium in patients with asthma and COPD that paved the way for a new personalized biological treatment for severe asthma. The Uller team studies the role of airway epithelium, the first line of defense, in airway diseases but also investigates how the epithelium initiates, orchestrates and shapes local and systemic inflammation in airway diseases. Furthermore, the team discovered an increased epithelial hyperreactivity to inhaled agents such as rhinovirus allergen and PM2.5 and now want to address how the epithelial barrier structure is influenced using integrative approaches by combining the use of X-rays and electrons.
Scattering and lmaging for Health lnsights and New Evidence Core Group member and leader of WG4 (Neurodegenerative diseases), LINXS Fellow
Professor, Lund University, Lund, Sweden
Prof. Deierborg is leading the research group Experimental Neuroinflammation Laboratory. His research on neurodegenerative diseases characterized by protein aggregation, such as Alzheimer's and Parkinson's disease. He is focusing on neuroinflammatory aspects and especially the function of microglia, known to be a reactive cell related to disease pathogenesis. The lab has revealed new ligands to immune receptors central in inflammation, and how inflammatory molecules can change the structure on diseases causing proteins. Experimental discoveries from his lab have led to clinical trials.
Scattering and lmaging for Health lnsights and New Evidence Core Group member and leader of WG3 (Transmittable diseases), LINXS Fellow
Professor, Lund University, Lund, Sweden
Prof. Hauryliuk's group conducts structure-functional studies of diverse molecular machines, combining biochemistry, NGS-based approaches and cryo-EM. The biological focus of the lab is infection, be it bacterial (here the focus is mechanisms of antibiotic resistance acting on the ribosome) or viral (here the focus is diverse innate anti-viral defence systems).
Scattering and lmaging for Health lnsights and New Evidence Core Group member and leader of WG1 (Metabolic diseases), LINXS Fellow
Associate Professor, Lund University, Lund, Sweden
Artner's group studies focus on understanding pancreatic islet function and development using molecular biology, cell biology, and histology approaches. The PI has access to human islets from normoglycemic and type 2 diabetic donors, as well as human embryonic pancreas through the Lund University Diabetes Center and a collaboration with the Women's clinic at SUS in Malmö.
Scattering and lmaging for Health lnsights and New Evidence Core Group member, LINXS Fellow
PhD, RISE, Sweden
Dr. Christopher Söderberg is an expert in solution small-angle X-ray scattering (SAXS), a technique he has been working with for 15 years. Söderberg worked as a beamline scientist at MAXlab, where he developed the biological SAXS setup at beamline 911-4. The setup was later migrated to the MAXIV CoSAXS beamline, where he was project manager of the development of BioSAXS, both as an employee at MAXIV and later at Research lnstitutes of Sweden (RISE). At RISE, Söderberg now works as a SAXS expert, participating primarily in pharmaceutical industry-related projects, working with proteins and various types of nanoparticles, while also focusing on SAXS method development and teaching SAXS to both industry professionals and PhD students.
Scattering and lmaging for Health lnsights and New Evidence Core Group member, LINXS Fellow
PhD, Facility Manager at Scilifelab's cryo-EM facility in Stockholm, MicroED Specialist.
Dr. Mathieu Coinçon is an expert in cryo-electron microscopy and X-ray crystallography, with a focus on high-resolution techniques for structural biology and materials science. As a facility manager, he oversees microED and single particle collection at ScilifeLab's cryo-EM facility, which features state-of-the-art equipment for single-particle analysis and cryo-electron tomography and electronic diffraction. Dedicated to advancing structural biology, he mentors researchers, develops methodologies, and enables impactful discoveries across biology, chemistry, and physics.
Scattering and lmaging for Health lnsights and New Evidence Core Group member, LINXS Fellow
Facility Manager, Cryo-EM for Life Sciences at Lund University, Lund, Sweden
Anu Tyagi is the facility manager for the Lund University cryo-EM facility. The facility is located at MAXIV including a 200 kV cryo-electron microscope Glacios 2 and a Vitrobot Mark IV System offering reproducible vitrification of biological samples. The facility was recently inaugurated, and the microscope is capable of collecting high resolution data sets for both single particle analysis and cryo-electron tomograms.
WORKING GROUPS FOR SHINE
WorkING Group 1
Metabolic diseases
Working Group 1 focuses on understanding the physiology of metabolic organs and how they interact. The group combines expertise in functional follow-up studies with knowledge in imaging and structural biology, with the aim of developing integrated approaches that advance our understanding of metabolic disease. Through workshops and seminars, including outreach via the LUDC early career network, the group will expose both established and young researchers to the range of imaging and scattering techniques available at large-scale facilities.
WORKING GROUP 2
Airway diseases
Working Group 2 focuses on understanding the molecular mechanisms underlying airway diseases, including asthma, COPD, and allergic rhinitis, with the aim of translating findings into new clinical treatments. Bringing together experimental and clinical scientists from Lund, Stockholm, and Copenhagen, the group has access to a range of clinical samples including lung biopsies, epithelial brushes, bronchoalveolar lavage, and blood samples. Advanced imaging techniques will be used to elucidate the molecular interplay between local and systemic inflammation in airway diseases.
WORKING GROUP 3
Transmittable diseases
Working Group 3 focuses on using electron microscopy to study infection processes across scales, from the molecular to the cellular level, covering both bacterial infections and eukaryotic viruses. The group combines expertise in single-particle reconstruction and tomography with a shared interest in understanding how bacteria, viruses, and bacteriophages interact. A particular emphasis is placed on Sweden-Japan collaboration, with the aim of building a lasting research network, facilitating personnel exchange, and targeting international funding opportunities such as STINT, JSPS, MIRAI, and the Human Frontier Science Program. The overarching goal is to attract more clinical infection researchers to make use of the advanced imaging capabilities available at MAX IV.
WORKING GROUP 4
Neurodeqenerative diseases
Working Group 4 focuses on protein aggregation and proteinopathies in neurodegenerative diseases including Alzheimer's, Parkinson's, Huntington's disease, and vascular dementia. The group studies disease processes across scales, from molecular aggregation and protein structure to cellular and tissue-level changes, including inflammatory responses triggered by protein aggregates and therapeutic approaches to facilitate their clearance. The aim is to attract and inspire more clinical and basic researchers to make use of the advanced imaging and scattering capabilities at MAX IV, supported by personnel exchange and joint grant applications.
Scattering and lmaging for Health lnsights and New Evidence Core Group leader and member WG1 (Metabolic diseases) LINXS Fellow
Professor, Lund University, Lund, Sweden
Prof. Lindkvist is the initiator of the theme and has solid experience as an expert user of MAXIV and cryo-EM, in particular within structural biology. Lindkvist is a pioneer within ex vivo analyses of clinical material applying electrons. Lindkvist has a long-standing and fruitful collaboration with the clinicians at the plastic surgery department at Skånes Universitetssjukhus (SUS) providing exceptional access to human primary white adipose tissue. This connection will be central for methods development activities within the theme. Lindkvist will be heavily involved in the theme both as a core group leader and as a fellow in the Metabolic diseases working group.