ZYX SPACE is an intelligent design platform that integrates artificial intelligence into the architectural design process. It is designed to minimize repetitive tasks through automation and empower designers to focus on creativity and decision-making. With its advanced AI engine trained on over 80,000 architectural drawings, ZYX SPACE can automatically recognize 2D floor plans, identify key elements such as walls, doors, and windows, and generate accurate 3D models in real time. Designers can experience seamless 2D-to-3D transformation without the need for manual modeling. ZYX SPACE also offers powerful daylight analysis features, simulating natural sunlight movement to visualize indoor lighting conditions and energy efficiency through heatmaps. This enables informed design decisions that consider both aesthetics and sustainability. One of the platform’s standout capabilities is converting image-based drawings into CAD-compatible vector files. ZYX SPACE not only extracts geometric data but also recognizes numerical information embedded in scanned or photographed blueprints, making legacy data usable in modern design workflows. Through auto-learning and labeling features, the platform continuously improves its recognition accuracy by learning from accumulated project data. It automatically classifies architectural components and spatial configurations, boosting productivity and reducing errors. ZYX SPACE also supports AI-driven interior rendering. It analyzes room layouts to suggest optimal furniture placements and delivers real-time visualizations based on different interior concepts, helping designers and clients envision the final space with clarity. When combined with ZYXCAD, ZYX SPACE provides a highly integrated design environment—enabling end-to-end automation from drafting to visualization. This powerful synergy allows architects, engineers, and designers to accelerate their workflows, improve precision, and unlock new levels of creativity.

Superior Performance: Stable braking power under extreme operating conditions, from taxiing to high-speed landings. Proven Reliability: Robust structures and advanced materials that guarantee long service life with minimal maintenance. Optimized Safety: Redundant design features and compliance with international aviation standards to meet the highest levels of operational safety. Custom Solutions: Tailored brake designs to fit the specific requirements of fixed-wing aircraft, rotary aircraft, and unmanned aerial platforms.

We bring all our skills and expertise to bear in product development and in-service support in order to meet our customers' needs: 3D drawings and design Aeroelasticity Thermal, CFD analysis Static and dynamic analysis Electrical/hydraulic/mechanical system design Cost-optimized design, cost-benefit analysis Parametric experiment design Optimization techniques and algorithms Multiphysics modeling Concessions management: control plan, extension of concession, design engineering office, concession justification, impact analysis (FMECA, process/design change, etc.), definition of a repair program, updating of certifications Flight physics Configuration management Design, calculation and modeling Composite or metallic parts

Wing shells, side shells and fuselage sections are usually made of carbon fibre composites and glued together during the production process. With many components, a groove or an open edge remains after the bonding process, which must be filled or sealed. A modified two-component epoxy resin is often mixed and then applied manually. This often entails long production times and complex quality controls. Equally high material costs due to the processing of materials from cartridges. ViscoTec defies short pot life and materials that are difficult to handle: Thanks to a coherent overall system from material removal to material application, this process can be automated. The two components are taken separately from cartridges, hobbocks or drums and fed via hose lines to a two-component dosing system. Only at the very end of the process they are mixed in a static mixing tube and applied to the substrate (e.g. via a nozzle). The process is controlled and monitored by pressure sensors.

The AB-U10 is a 10 kg-class vectored-thrust eVTOL. With a wingspan of 1.8 meters, it features a maximum take-off weight (MTOW) of 10 kg, a range of over 10 km, a payload capacity of 2 kg, and a maximum speed of 160 km/h. The AB-U10 is a lightweight mission aircraft specifically designed for anti-drone operations, equipped with an integrated net gun system.

This very compact optical system with an original design allows two groups of lenses to be moved in perfect coaxiality (+/- 1µm) over several millimeters. It is particularly recommended for applications requiring a constant alignment precision when moving the lenses. The perfect coaxiality of the lens holders is guaranteed by a common bore machined in a single operation. Numerous dimensional modifications allow a perfect adaptation to the optical design related to its application. Due to the use of perfectly adjusted ball cages, its low-friction translation mechanism is best suited for intense use and offers an unequalled lifetime without any particular maintenance.

- An updated model of the Heron UAV Strategic and versatile aircraft capable of carrying diverse payloads - Can reach an altitude of 35,000 feet, speed of 150 knots and remain in the air for 45 consecutive hours - Wide and strong body structure, allowing for quick and easy maintenance without adding to its weight - Enables new configurations, as long-range observation sensors and radars

It is commonly used in industrial and other devices to generate triggers ranging from one to several thousand FPS, ensuring precise timing synchronization with various devices. Periodic Mode: Continuously generates trigger signals after configuration. Burst Mode: Generates a single trigger signal upon receiving the best command via serial communication. *** Product Expansion and Usage ***  Four Operating Modes  Periodic mode: Generates a single-cycle signal based on the configured frequency and duty ratio.  Burst mode: Generates a single-cycle signal synchronized with a software trigger.  External trigger mode: Generates a single-cycle signal synchronized with an external trigger.  External trigger bypass mode: Distributes signals triggered externally.  Connect the trigger output signals from a Master Trigger Generator to a Slave Trigger Generator (as shown below).  By connecting one of the Master TG’s Trigger Outputs (1 to 16) to the Slave TG’s External Trigger Input: Outputs 1 to 15 of the Master TG remain unchanged. Outputs 16 to 31 of the Slave TG will mirror the Master TG’s Trigger Output. (Note: Each trigger signal passing through a TG experiences a delay of ten ns. However, since trigger outputs operate in the range of tens to thousands of Hz, users will not notice the delay).  Example with 17 TGen-16C units: Produces up to 256 Trigger Output Channels (16 × 16).