
We bring innovative ideas to the research world.
Let us support you in developing your custom detector solution—from concept to production. With extensive experience in detector physics and engineering, we can help you design custom-shaped detectors, optimize scintillator coupling, and develop 3D-printed mechanical assemblies tailored to your experimental setup. We also offer expertise in detector and ASIC bonding.
We support astrophysics missions with robust, space-ready electronics designed for telescopes and satellite-based platforms. Our team has contributed to several high-profile research projects by delivering compact, high-reliability electronics optimized for harsh environments, constrained power budgets, and strict volume requirements.
We have designed and developed electronics for:
We develop high-performance electronic systems for X-ray and gamma-ray imaging and spectroscopy applications. Our solutions are designed for precision, speed, and stability—supporting both laboratory setups and complex experimental environments.
With extensive experience in photon detection, timing, and spectral analysis, we provide complete hardware and firmware solutions for a wide range of scintillation and semiconductor-based detectors.
Our systems are used in applications ranging from muon-induced X-ray detection to advanced spectroscopy in research and industry.
We believe in the importance of science education and outreach. That’s why we actively collaborate with schools and educational institutions to design hands-on projects that introduce students to modern physics and electronics.
Our initiatives include internships, school-university partnership programs, and STEM outreach activities aimed at engaging students through real-world experiments and custom-designed hardware.
We provide all necessary support, including hardware development, teaching materials, and on-site installation or demonstration, making advanced physics accessible and inspiring for young learners.
Terzina is one of the two scientific payloads aboard the Italian NUSES satellite. It is a compact, space-based telescope designed to detect Cherenkov light from Extensive Air Showers (EAS) initiated by Ultra-High Energy Cosmic Rays and neutrinos. Featuring a Schmidt-Cassegrain optical system and a Silicon Photomultiplier (SiPM) camera, Terzina integrates a custom front-end and DAQ architecture capable of high-speed, low-power acquisition and real-time triggering in low Earth orbit.
Learn MoreThe Super-MuSR spectrometer leverages a 1D convolutional neural network embedded in FPGA to resolve event pile-up in real time, outperforming classical deconvolution and enabling robust hit identification at gigacount rates.
Learn MoreZiré is one of the two payloads aboard the Italian NUSES satellite, designed to detect low- and medium-energy cosmic rays and gamma rays. It integrates a Fiber Tracker, Plastic Scintillator Tower, gamma-ray calorimeter (CALOg), and an Anti-Coincidence System, all read out via SiPMs. Ziré enables 3D particle tracking, charge discrimination, and gamma-ray spectroscopy, serving as a technology pathfinder for future space-based astroparticle detectors.
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