Techniques that power discovery

X-ray scattering reveals how matter is structured on the nano- and microscale. By analyzing how X-rays interact with a material, researchers and engineers can investigate particle sizes, internal ordering, interfaces, and structural changes that are often invisible to conventional imaging methods.

The technique plays a key role across materials science, semiconductors, energy storage, pharmaceuticals, and advanced manufacturing. It enables the development of stronger materials, more efficient batteries, improved catalysts, and next-generation electronic devices. Scattering methods are equally valuable in industrial quality control and in fundamental research, where understanding structure-property relationships is essential.

Modern scattering experiments generate large volumes of data and often rely on high-brilliance synchrotron sources. Fast, noise-free detectors with high dynamic range are therefore critical for capturing weak signals alongside intense diffraction peaks, enabling accurate measurements across a wide range of experimental conditions.

For X-ray scattering, a detector needs to

• detect weak signals next to very intense peaks,
• handle high photon flux without saturation,
• capture fast structural changes,
• deliver quantitative, reproducible data.

X-ray imaging makes the internal structure of objects visible without destroying or altering the sample. From industrial inspection and quality assurance to life sciences and advanced research, it provides insights that cannot be obtained through surface examination alone.

The technique is widely used to identify defects, verify manufacturing quality, analyze complex assemblies, and study biological or geological specimens. Advances in detector technology now enable high-resolution imaging, rapid acquisition, and quantitative analysis, allowing users to move beyond simple visualization toward precise measurement and characterization.

Whether examining microelectronic components, additive-manufactured parts, batteries, or scientific samples, modern X-ray imaging supports faster decision-making and more reliable outcomes. High-sensitivity detectors help maximize image quality while reducing exposure times, increasing throughput and enabling efficient operation in both laboratory and production environments.

Detectors for X-ray images should

• reveal fine details and defects,
• maximize image quality at minimum exposure,
• support high-throughput inspection,
• maintain consistent image quality.

X-ray spectroscopy provides information not only about where structures are located, but also what they are made of. By measuring the energy of detected X-rays, the technique enables elemental and chemical analysis of materials with high precision.

Applications range from semiconductor manufacturing and environmental monitoring to materials development, mining, and scientific research. Spectroscopy helps identify elemental composition, detect contaminants, monitor production processes, and investigate chemical transformations in real time.

As analytical requirements continue to grow, detector performance has become a key factor in obtaining reliable results. High count-rate capability, excellent energy discrimination, and low noise enable accurate measurements even in demanding environments. Modern detector systems support faster analysis, improved sensitivity, and more efficient workflows, helping organizations turn complex measurement data into actionable information.

Detectors for X-ray spectroscopy need

• direct energy resolution,
• configurable energy thresholds,
• large operation energy range,
• high dynamic range,
• low noise at all count rates.

Electron microscopy extends imaging far beyond the limits of optical microscopes, revealing structures at the micro-, nano-, and even atomic scale. It has become an indispensable tool in fields ranging from semiconductor development and nanotechnology to life sciences and advanced materials research.

By using electrons instead of visible light, electron microscopes provide extraordinary spatial resolution and surface detail. Researchers use these instruments to study device architectures, characterize materials, investigate failure mechanisms, and understand complex biological structures.

The quality of the resulting data depends not only on the microscope itself but also on the detector technology used to capture signals. Modern electron detectors deliver high sensitivity, fast acquisition, and precise signal detection, enabling efficient workflows and reliable quantitative analysis. As industries continue to push toward smaller structures and higher performance, electron microscopy remains a critical technology for innovation, quality assurance, and scientific discovery.

For electron detectors in EM use, most important are

• excellent spacial resolution,
• high sensitivity and low noise,
• high aquisition speed,
• radiation tolerance.