InspecX is a next-generation autonomous swarm inspection system for aircraft. It is addressing challenges in the $100B global aviation maintenance market. Airlines face a shortage of certified technicians, with Boeing projecting demand for over 700,000 by 2044. Aircraft-on-ground (AOG) incidents cost $10,000–$150,000 per hour, making downtime reduction critical. InspecX uses swarm coordination and LiDAR-based SLAM to perform safe inspections in GNSS-denied or indoor environments. It reduces required technicians from 9 to 3 and inspection time from 10 hours to 3, achieving over 50% cost savings for large aircraft. Beyond efficiency, InspecX helps airlines avoid AOG losses, accelerates maintenance cycles, and improves airworthiness. By maximizing fleet readiness and ensuring reliable operations, it provides a scalable, future-proof solution. InspecX is positioned to become the new global standard for aviation safety and maintenance in the era of intelligent mobility.

Processor - NXP Quad Core PowerPC QorIQT2080 up to 1.8GHz - 6 DMIPS/MHz per core (up to 43,200 DMIPS@1.8GHz) - 128b AltiVecSIMD unit (up to 72 GFLOPs@1.8GHz) Memory - 4GB soldered 64-bit DDR3L SDRAM with ECC - 256MB 16-bit NOR flash - 64GB SATA NAND SSD - 512KB NvRAM Form Factor - 3U OpenVPX - Conduction-Cooled

The ECL4000 is an LTE outdoor base station developed for the U.S. CBRS market, providing a service radius of several kilometers and enabling seamless private LTE network service.

The SCVPX-SSGM (Synchronous Signal Generation Module) generates synchronization signals to coordinate the operation and timing of various radar system components. It can generate synchronization signals using an internal clock, receive an external clock, or regenerate synchronization signals from external sources to maintain precise timing cycles. A device driver program is required for configuration and operation, and the Linux driver can be downloaded from Seedcore’s product page. Drivers for other operating systems can be developed upon request. This module is deployed in the L-SAM multi-function radar system, providing precise timing synchronization across mission-critical subsystems.

This Control Actuation System (CAS) is a guidance system for unmanned flying objects. It consists of three MPS fin actuators that each independently position an aerodynamic fin. The maximum angle of incidence is ±8°, which allows the device to carry out highly precise dynamic manoeuvres. The miniature fin actuators that make up this Control Actuation System are manufactured by MPS Microsystems and were designed based on customer specifications. Designed to guide a very small object and disposing of an extremely limited space, these fin actuators meet strict requirements in terms of performance, weight - less than 100 g - and dimensions. To reduce the length of this actuator, MPS Microsystems used part of the screw length as the motor axis. This screw is equipped with a very compact 4-point contact bearing that simultaneously absorbs axial and radial loads. The angular play on the aileron axis is less than 0.1° rms. This actuator meets the storage and vibration requirements of military equipment.

D-100-C repair & Bleeding

- 1 channel - Up to 100 FBG sensors - Up to 50 kHz sampling frequency

Explore nanoscale structure with clarity, speed, and confidence. Tescan’s STEM solutions are purpose-built for advanced materials research, semiconductor analysis, and detailed nanoscale characterization. With integrated 4D-STEM, precession-assisted diffraction, and synchronized EDS workflows, our instruments deliver actionable insight with unmatched usability—whether you're mapping strain, analyzing phases, or accelerating failure analysis and R&D.