Check out the May IL Photonics newsletter for the latest news regarding our suppliers and their products. Click https://ilphotonics.com/may-2026/

High speed #laser texturing is finding diverse applications — from tribological structures through hydrophobic surfaces to anti-bacterial patterning of surgical implants. Often, laser area texturing requires very dense spots with excellent spot-to-spot uniformity. Learn more: https://ilphotonics.com/high-speed-laser-texturing-without-spot-to-spot-interference/

An imaging system was used to study next-generation #perovskite-CIGSe tandem #SolarCells. By capturing #photoluminescence (PL) and #electroluminescence (EL) images, this system enabled the researchers to visualize defects, track layer performance, and understand degradation processes over an entire year of outdoor testing. This work is helping push the boundaries of high-efficiency, flexible, and durable solar technologies. Learn more: https://ilphotonics.com/studying-next-generation-perovskite-cigse-tandem-solar-cells/

A recent publication demonstrated how Laser-Induced Breakdown Spectroscopy (#LIBS) can advance the clinical understanding of #urinary stone composition. A machine learning model combining LIBS and clinical data achieved 94% accuracy in identifying recurrence-associated profiles such as magnesium and strontium. These insights may support better risk assessment and prevention strategies in #urolithiasis management. Learn more: https://ilphotonics.com/libs-unlocks-new-insights-in-urology/

Designed to capture #wavelengths between 190–400 nm, #ultraviolet (UV) cameras reveal microscopic defects and residues that traditional systems may miss. These capabilities are essential for maintaining the high standards required in #semiconductor manufacturing. From wafer surface analysis to inline defect detection and layer thickness measurement, advanced imaging solutions are tailored for the industry’s most critical applications. Learn more: https://ilphotonics.com/advancing-semiconductor-inspection-with-uv-imaging/

Precise #optical mapping of #cardiac activity in human stem cell-derived cells could accelerate drug safety screening and cardiac disease research. Researchers combined voltage and calcium sensors with a synchronized LED-camera system using excitation filters to capture real-time cellular signals. Learn more: https://ilphotonics.com/capturing-cellular-cardiac-voltage-and-calcium-signals-in-real-time/

Laser cutting is a precision manufacturing process that uses a focused, high-power #laser beam to accurately cut through industrial materials. The heat generated by laser beams can melt, burn, or vaporize even the toughest materials, including metals and acrylics. #LaserCutting can create clean-cut or rounded edges, tapered cuts, and intricate, complex designs. Learn more: https://ilphotonics.com/what-is-laser-cutting/

A published study explains how Resonant Soft X-ray Scattering (#RSoXS) measurements were carried out at the SST-1 beamline (NSLS-II) to investigate #nanostructural features in organic #SolarCell materials. Researchers used the soft X-ray-sensitive CCD detector to capture high-resolution 2D scattering patterns at a photon energy of 285.4 eV and a sample-to-detector distance of 35 mm. Learn more: https://ilphotonics.com/greateyes-ccd-used-to-investigate-organic-solar-cell-materials/

In #AdditiveManufacturing, did you know, the very component designed to protect your #laser system could be the weak link in your process chain? #Contamination on optical chamber windows is a source of process variability, directly impacting part quality. Learn more: https://ilphotonics.com/what-is-the-weak-link-in-your-laser-system/

Laser #ablation is the process of using a high-powered, focused #laser beam to remove layers of material from a solid surface. An article explores how industrial laser ablation works, the different types, and its many advantages. Learn more: https://ilphotonics.com/what-is-laser-ablation-how-does-it-work/