- Operates by an internal pipeline open/close mechanism controlled by a solenoid valve - Relief plug: prevents malfunction due to internal pressure expansion - Manual discharge available via manual handle when power is OFF - Outputs an abnormal signal if the reference pressure drops due to extinguishing agent leakage

i3system’s line scanning X-ray detector platform, XID-C15DP/XID-C24DC, is a high performance and cost effective solution for dental panoramic, cephalometric applications. i3system’s direct type sensor ensures the most sharp images among the current products in the market. XID series is designed for compact size and easy installation. High DQE(Direct Quant㎛ Efficiency) enables high performance at lower dose of X-ray. Introduction Indirect type X-ray detector uses the scintillator and the photo-diode(CCD or CMOS sensor) for conversion of the X-ray into the light and for taking images espectively. But the light scatters and goes extinct during it passes through the scintillator and reaches to the CCD or CMOS sensor. As a result, it is inevitable to get blurred image. In the mean time, XID C15DP, direct type detector, converts X-rays into electronic signals directly without conversion process of light. Because X-ray is not converted into light, it provides much sharper images than indirect type detector. XID C15DP is designed to compact for easy installation. It provides Gigabit Ethernet port on the detector for easy configuration. Instead of Gigabit Ethernet, camera link or optical interface can be provided according to requirements of users.

Between Earth and space: stratosphere-compatible, solar-powered high-altitude aircraft, known as HAPs (High Altitude Platforms), offer a sustainable alternative to satellites for Earth observation and communication. They are reusable, cost-effective and flexible in use. The DLR joint project HAP-alpha is developing such a technology demonstrator and is endeavoring to establish a complete system capable of permanent operation. The aim is for DLR to build up comprehensive expertise for the development of high-performance, high-flying solar aircraft and to play an active role in shaping the legal framework. In summer 2025, the HAP-alpha successfully passed a ground vibration test.

EMCORE’s exclusive photonic integrated chip (PIC) technology delivers improved reliability and repeatability. The precision non-ITAR GEO-FOG 3D Dual features two GNSS antennas on a fixed PTK baseline to offer increased heading, pitch, and roll accuracy for static and dynamic applications where a single antenna system can be problematic. This dual antenna INS is the best choice for systems requiring heading at start-up or in low dynamic conditions. Highlights Data rate 10x faster than other available systems Cutting-edge sensor fusion for dependable, precise navigation in a full array of applications and conditions Six degrees of freedom (DoF) IMU with integrated gyros and accelerometers Technology Details Photonic Integrated Chip Technology EMCORE’s new photonic integrated chip (PIC) technology reimagines FOG technology by replacing individual fiber components with an innovative integrated planar optic chip. This results in a FOG with PIC Inside™ that’s even more reliable and delivers superior repeatability unit-to-unit. With three of these integrated photonic gyros at its core, the P-1750 IMU enables the GEO-FOG to provide the safe, accurate performance autonomous platforms demand. Learn More DSP Technology EMCORE’s DSP electronics improve FOG performance in critical areas such as scale factor and bias vs. temperature, scale factor linearity, and maximum input rate. EMCORE’s exclusive DSP design overcomes the limitations of analog signal processing, eliminating temperature-sensitive drift and rotation errors. GEO•FOG Manager The GEO•FOG Manager is ideal when integrating EMCORE’s GEO•FOG 3D and GEO•FOG 3D Dual INS. Learn More Developer’s Kit for Rapid Integration The KVH FOG/IMU Developer’s Kit includes easy-to-use software to accelerate your IMU and FOG integration, development, and interface efforts.

WPGM0507100M is a 12W Gallium Nitride (GaN) Monolithic Microwave Integrated Circuit (MMIC). WPGM0507100M is useful for high power C-band applications including 5.8GHz ISM-band systems. Spec Frequency : 5-7GHz Saturated Output Power : 100W@6GHz PAE : 51% Power Gain : 27.7dB@6GHz Operating Voltage : 28-32V

Type : Axial (3P) Size(Ø, mm) : 310 × 109 Weight(kg) : 37 N. Speed(rpm) : 2100 N. Torque(Nm) : 450 N. Power(kW) : 100

Ultra-High Accuracy MEMS Motus features some of the highest accuracy MEMS accelerometers and gyroscopes currently available. Motus’s inertial performance exceeds some FOG IMUs and is up to 100x smaller and 10x cheaper. Motus is put through Advanced Navigation’s intensive calibration process to provide consistently accurate data over an extended temperature range of -40°C to 85°C. Miniature Package Never before has such high inertial performance been available in such a small package. Motus consumes just over 1 cubic inch in volume and weighs only 26 grams. This makes it ideal for weight and size sensitive applications. Motus is available in an OEM package suitable for integration into larger products or an enclosed package for external and standalone use. Advanced Signal Processing Motus samples its sensors synchronously at 1000Hz through six individual 24-bit differential ADCs which minimizes noise as well as providing optimal thermal calibration and performance characteristics. 14 separate heavily filtered regulated power supplies ensure that each sensor and ADC is operating off the cleanest possible power supply. Reliability Motus has been designed from the ground up for mission critical control applications where reliability is very important. It is built on top of a safety oriented real time operating system and all software is designed and tested to safety standards with fault tolerance in mind. The hardware is designed and manufactured to mil standards. High Update Rate Motus outputs temperature calibrated sensor data at 1000Hz as well as filtered attitude at the same rate. This allows for control of dynamically unstable platforms.

The SC-HPCRTM is a Rear Transition Module (RTM) designed to extend the I/O functionality of the HPC2812 high-performance computing board. It can be mounted on the rear side of the VPX backplane to enhance system connectivity and I/O flexibility. Since the HPC2812 board consists of two computing nodes, the SC-HPCRTM provides dedicated interfaces for each node, including Ethernet, USB, MMCX, and Mini-HDMI ports, ensuring optimal data communication and display output performance in mission-critical embedded systems.