
Since 2006, DECTRIS has worked alongside scientists, engineers, and industry to push the boundaries of measurement and insight across research and technology.
What started as a spin-off from the Paul Scherrer Institute grew into the company behind the world's most sensitive X-ray and electron detectors – instruments precise enough to reveal what was previously invisible. Today, DECTRIS also offers a data management and analytics platform that makes it even faster to turn raw detector data into meaningful results in life sciences, materials science, and energy research.

Enabled Breakthroughs
Scientists around the world have solved more than 75’000 macromolecular structures using data from DECTRIS detectors. Pick almost any disease or process in the body, and you'll likely find a small piece our detectors helped scientists explain better. And that's just one field: wherever precise measurement pushes science forward, you might find DECTRIS technology as part of the bigger story.
Magnon detection in electron microscopy
In 2025, researchers at SuperSTEM and the University of Leeds used a DECTRIS ELA detector to detect magnons, weak magnetic excitations that were considered nearly impossible to isolate, with nanometer resolution. This unprecedented sensitivity opens new routes towards a further miniaturization of transistors by means of novel technologies such as spintronics.
EV battery inspection
Together with Excillum, we developed a way to capture 3D tomograms of batteries on production lines in seconds rather than minutes, as opposed to 2D radiograms that are faster but show less. This lets manufacturers inspect every battery, not just spot checks, without slowing the line. The result: fewer defects reaching electric vehicles and a major bottleneck removed from EV production scaling.
AlphaFold winning a Nobel Prize
DECTRIS detectors have been used to solve almost 30% of all the entries in the Protein Data Bank throughout its history, and around 80% of the structures added in the past two decades. This data also served as training input for DeepMind's AlphaFold, work that earned Demis Hassabis and John Jumper half of the 2024 Nobel Prize in Chemistry. Today, DECTRIS detectors remain essential for structural biology, drug development, and validating AI prediction .
AI-driven real-time ptychography
In collaboration with NVIDIA, PSI, and DLS, we enabled real-time processing of beamline data even with our fastest detector, the DECTRIS SELUN. With the data pipeline no longer the bottleneck, scientists can adjust experiments on the fly to take better data – and the AI component opens the door to fully autonomous experiments.
Clean energy from plasma fusion
Princeton Plasma Physics Laboratory has collaborated with DECTRIS since 2007. In 2024, PPPL scientists working at the WEST tokamak in France – using a custom PILATUS3 detector as part of their diagnostic setup – helped achieve a new record: sustaining a plasma at 50 million degrees Celsius for six minutes. This milestone brings us one step closer to clean, safe, and abundant fusion power.
Fighting COVID-19
DECTRIS detectors, especially EIGER and PILATUS, were essential tools in the global response to COVID-19. By 2023, 57% of COVID-19-related macromolecular structures had been solved using DECTRIS detectors. This structural data revealed how the virus enters cells, how it replicates, and how to stop it. At DESY, a PILATUS3-equipped beamline screened 6,000 drug compounds against the coronavirus main protease – the same target that oral antivirals like Paxlovid were designed to block. DECTRIS-determined structures also supported Pfizer-BioNTech mRNA vaccine development.
Plastic-eating enzymes
The PILATUS 12M-DLS detector at Diamond Light Source beamline I23 was critical for solving the structure of PETase, an enzyme that breaks down PET plastic. This discovery could help address microplastic pollution and support efforts to clean plastic waste from our oceans.
Zika vaccine research
Synchrotron SOLEIL made a breakthrough discovery that advanced Zika vaccine development, using X-ray crystallographic data collected at beamline Proxima-2A with a DECTRIS EIGER X 9M. The Zika virus threatened pregnant women and their babies across South America during the 2016 epidemic.
Our History
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How We Work






About Us

~200
employees
>30%
hold a Ph.D.
>65%
employees with a technical college or university degree

Headquartered in Switzerland
Subsidiaries in
the United States and Japan
Distributors in China, India,
South Korea and Taiwan


































