Titanium Grade 1 -Strip Titanium Grade 2 -Bars-Sheets and Plates-Tubes and Pipes Titanium Grade 4 -Bars-Sheets and Plates-Wire Titanium Grade 5 (6Al-4V) -Bars-Sheets and Plates Titanium Grade 5 ELI -Bars-Sheets and Plates Titanium Grade 7 -Bars-Sheets and Plates-Tubes and Pipes Titanium Grade 9 (3AL2.5V) -Tubes and Pipes Titanium Ti-6Al-7Nb -Bars

To guarantee maximum safety and reliability, our DA 30 features a brushless motor and a contactless wear-free position sensor. This means maximum service life with the greatest‐possible power delivery and its design prevents electromagnetic emissions (EMI) caused by brush sparking. The housing made of saltwater‐resistant aluminum is HART‐coat treated, meets the IP‐67 standard for water and dust sealing and provides an integrated Sub‐D connector (MIL spec. circular connector or cable gland on request). Brackets integrated in the housing for horizontal and vertical assembly. 8‐fold, ball‐bearing supported, steel gear train, drive shaft with ANSI multi‐tooth. The DA 30 series can be equipped with a standard PWM input (Pulse Width Modulation) that has two different interfaces: a differential, galvanic isolated interface (Opto‐Coupler) and a single‐ended interface with CMOS levels that is also used to program the servo parameters. It includes analog position feedback to detect the drive shaft position. A differential RS‐422 PWM interface can be chosen instead of the opto‐coupled interface. The DA 30 with digital serial command interface (RS‐485) receives its commands via a CRC secured protocol. It can return not only the shaft position in digital format, but also several diagnostic data such as the level of the supply voltage, current consumption and the temperature of the motor and electronics in digital form (optionally also the humidity within the actuator case). These kind of diagnostic capabilities help to determine the health state of the actuators before, during and after deployment.

InstructIQ analyzes flight simulator data in real time, identifies strengths and weaknesses, infers core competencies, and shows insights into the performance of each flight maneuver. InstructIQ provides data-driven pilot competency analytics using artificial intelligence (AI) to make training more efficient and effective. Implement standardized instruction across your training center without the need to make costly changes to your training media or purchase new training devices. Get the most out of your training center investments by connecting your training devices to a cloud-based AI.

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.

Capable of a wide 18~32-volt operating range, the robust SG50BL is designed with a high-performance brushless motor, magnetic encoder, and durable, hardened steel gears. It includes CAN 2.0 A/B or DroneCAN (formerly UAVCAN) control options with 360 degrees and multi-turn proportional rotation. Its waterproof 50mm case and monster torque range bring the power and durability required for robotic, automation and commercial applications requiring robust force, precision and installed durability. #UAV #UAS #UAM #UGV #UUV #USV

Our LiDAR uses a custom-designed laser that separates 1064 nm and 532 nm wavelengths from a single source, with two dedicated receivers capturing each set of data independently. Inside the system, the linear laser beam is refracted at a 10-degree angle through a prism to enable circular scanning. An RF module is also integrated for real-time equipment status monitoring. From circuit board design to component selection, every part of this system was developed in-house by multiple institutions. As a result, we have successfully eliminated reliance on foreign technology.

Our products are used for manufacturing interior design components for civil and military aircraft construction. Sandwich structures are used in many areas of an aircraft (storage compartments, interiors, wings) to reduce weight. In order to structurally strengthen the honeycombs or insert them, they often have to be filled during the production process. Typical materials are one- and two-component epoxy resins with a very high proportion of hollow glass spheres. These require extremely gentle handling, as they would otherwise be destroyed, which in turn would result in an increase in density. Common application patterns are beads, circles, full surfaces and egde-filling. The job is often done manually, which results in long production times and high running costs due to material waste. Lack of reproducibility is just as problematic as the health hazard often posed by these media. The ViscoTec solution: Material is continuously fed to the dosing system by removal from a large container. With the help of a robot or axis system, suitable structures can be mapped reliably. A coordinated overall system delivers a dispensing result according to specification, in which operator interaction is reduced to a minimum.

The Pseudo-GNSS system is designed with tightly integrated firmware and hardware. The firmware generates PRN signals based on GNSS orbital data, modulates them to resemble real GNSS signals, and ensures time synchronization in a Master-Slave structure. A user-friendly GUI software enables easy device control. The hardware consists of a power unit, signal transmission unit, and communication unit. The power unit ensures stable supply through low-noise design, while the transmission unit radiates GNSS-like signals indoors. The communication unit supports Wi-Fi and wired connections for synchronization and control across multiple devices, with compatibility for smartphones and tablets to display positioning results.