A revolution in glass processing technology for the medical technology sector - 07/10/2026

The Freiburg-based start-up Glassomer is rethinking materials

Glassomer has developed an innovative process for producing pure quartz glass. The result is geometrically complex glass components with micrometre-level precision that can be reproduced consistently at a fraction of the energy cost of conventional glass-melting processes. The company focuses in particular on customised products for diagnostic, therapeutic and microfluidic applications.

A team of researchers at the University of Stuttgart has developed a new method that could make MRI even more precise by eliminating “dead time,” a key limiting factor in the measurement process, thereby enabling the detection of signals that are lost using conventional methods. This method opens up new possibilities for medical diagnostics and non-destructive materials testing. The research team presents the new approach in Science Advances.

Prof. Chunhai Fan, who is a recipient of the Humboldt Research Award, has been conducting research at the University of Stuttgart since June. Fan works closely with Prof. Laura Na Liu of the 2nd Physics Institute. Both researchers are among the world's leading experts in the field of DNA nanotechnology.

Research into quantum technology by four teams at Ulm University is being funded as part of the European QuantERA programme. This is more than at any other German university. The projects focus, for example, on more robust quantum computers and innovative medical diagnostic methods.

Researchers are developing biotechnological processes that enable microbes to produce proteins and vitamins for human consumption using basic chemical ingredients, such as carbon dioxide, hydrogen and oxygen – entirely bypassing livestock farming and agriculture. Because these methods also require energy input, they are popularly called “power-to-protein” and “power-to-vitamin” processes.

Researchers from Heidelberg University’s Faculty of Medicine, Harvard Medical School, and the German Cancer Research Center (DKFZ) have uncovered key mechanisms underlying the proliferation of the malaria parasite Plasmodium. The molecular processes that govern the formation of infectious daughter parasites and new nuclei are essential for parasite survival and may therefore represent targets for future antimalarial therapies.

A team of researchers from the Heidelberg Institute for Theoretical Studies and the Max Planck Institute for Polymer Research have developed a model that learns how to generate proteins whose structures are highly flexible, even with patterns that are uncommon in natural proteins. Their work, marks a step towards the goal of designing new proteins for applications in biotechnology, therapeutics and environmental research.

Prof. Dr Fred Hamprecht from the Interdisciplinary Center for Scientific Computing of Heidelberg University is receiving valuable funding from the ERC, which will support a project in the field of computational quantum chemistry. An ERC Advanced Grant also goes to Prof. Dr Andreas Meyer-Lindenberg, Director of the Central Institute of Mental Health and professor at the Medical Faculty Mannheim of Ruperto Carola.

Gelatin is a versatile natural material. To tailor its properties specifically to the various applications in medicine, diagnostics, and cosmetics, the Fraunhofer IGB has developed a toolbox for chemical functionalization. With the help of automated processes, the modifications can now be scaled under defined conditions, and reproducible batches of modified gelatin can be produced on a scale ranging from grams to kg for customer sampling.

The Collaborative Research Center (SFB) “High Performance Compact Magnetic Resonance” (HyPERiON) has been exploring new avenues in magnetic resonance technology since 2022. Under the leadership of the Karlsruhe Institute of Technology (KIT), the researchers aim to develop high-performance magnetic resonance systems in a benchtop format to make them suitable for widespread use.

Experts in Heidelberg have developed an AI system that can classify brain tumors with unprecedented accuracy using standard microscopic tissue sections. Using digitized standard stains, the system identifies more than 100 molecular subtypes of central nervous system tumors, delivers results within minutes, and could accelerate the diagnosis of brain tumors worldwide.

In rare cases, cancer treatments can cause serious long-term effects. These include so-called secondary leukemias. This form of blood cancer can develop when chemotherapy or radiotherapy damages the genetic material of healthy cells. A research team led by a scientist from Ulm has now discovered a molecular protective mechanism against such genomic damage: a peptide.

The German Chemical Industry Fund (FCI) is supporting the course offering ‘DigiChemJN’ at the Faculty of Chemistry and Pharmacy. DigiChemJN strengthens students’ data literacy by providing them qualifications in data-based research methods, experimental datasets, and artificial intelligence (AI).

How do antimetabolite cancer drugs damage the genetic material of malignantly transformed cells and thereby destroy them? How might these drugs be used more precisely, particularly in the treatment of pediatric tumors? A new research group led by Dr. Christopher Carnie, a scientist at the Heidelberg Faculty of Medicine at Heidelberg University, will address these questions.

Living systems such as cells rely on membrane pores and channels to transport molecules, exchange signals, and organize biochemical reactions. These functions emerge from dynamic interactions between molecular components. Researchers at the University of Stuttgart have used DNA nanotechnology to develop a synthetic membrane architecture that mimics such interactions.

The life science group Sartorius has opened a new center in Freiburg, Germany, dedicated to the development and production of quality-critical materials for the cell and gene therapy market. In Freiburg, the company manufactures essential components such as cytokines and growth factors used in these novel therapies. With an investment of more than 140 million euros, Sartorius is reaffirming its strategic focus on this emerging business area.

Medical Center – University of Freiburg demonstrates a fundamental therapeutic approach for hereditary immune system defects in a mouse model. The safety profile of genome editing varies significantly depending on the method and cell type.

AI is transforming science and does not stop at neuroscience. In this interview, we speak to Gabriele Lohmann about her research at the intersection of the brain and algorithms. She talks about the use of artificial intelligence as a research tool, the decoding of brain activity, and why large language models do not understand what they are doing.

Led by researchers from Heidelberg Faculty of Medicine at Heidelberg University and the University of California, San Francisco (USA), an international research team has evaluated a novel approach for the diagnosis of pulmonary tuberculosis. The method enables detection of Mycobacterium tuberculosis without laboratory infrastructure, within a markedly shorter time frame than conventional diagnostics, and using a simple swab.

Ulm University held an awards ceremony to recognise the outstanding achievements in research and teaching of its early-career researchers. The event, held at the end of April at Villa Eberhardt, focused on researchers who had received seed funding for their own research projects.

Genome duplication probably gave biodiversity a decisive evolutionary boost. A Chinese-German research team led by Axel Meyer from the University of Konstanz has now investigated the early phases of the process known as re-diploidization. The results show that the fusion of chromosome sets is asynchronous.

A novel biomimetic tissue substitute combines precisely tunable mechanical properties with biological functionality and is now ready for applications in medical technology. The material was developed in the »PolyKARD« project by Fraunhofer IAP and the NMI Natural and Medical Sciences Institute. From 20.-24.04, 2026, the material will be presented together with further developments at the Hannover Messe, Fraunhofer joint booth.

How can you charge electric cars without plugging them into the power grid for hours on end? How can industrial robots be “refueled” during operation? And how does wireless energy transfer improve medical technology? These questions have occupied Prof. Nejila Parspour, Director of the Institute of Electrical Energy Conversion (IEW) at the University of Stuttgart, for more than twenty years.

Computer simulations and Artificial Intelligence are the main pillars of the “SIMPLAIX” collaboration, initiated by the Heidelberg Institute for Theoretical Studies (HITS). Together with colleagues from Heidelberg University and Karlsruhe Institute of Technology, HITS researchers are addressing challenges in the simulation of biomolecules and molecular materials by pooling their expertise in multiscale computer simulation and machine learning.