Users can utilize and control autonomous drone services, including mission area setting, automatic dispatch instructions, real-time status checks, and return and charging confirmation, through the control program. This allows for the effective collection of various data, including minimizing manpower, improving accuracy, and responding to emergency situations.

The low profile MD145MW-DroneCAN is a 10mm, metal gear, sub 1 oz servo with dual ball bearings, cored motor, and contactless magnetic encoder. This discrete package offers high performance and reliability for robotic and remote, unmanned aerial applications where space is at a premium. Operating via DroneCAN (formerly UAVCAN) control at a wide voltage range from 4.8~7.4 volts, the unique MD145MW-DroneCAN servo produces impressive torque and speeds in its class. #UAV #UAS #UGV

CAPHMICRO has the ability to design and manufacture wire harnesses and cable assemblies for defense, aerospace, and space launch vehicles/satellites. We design and manufacture in compliance with IPC-620 and J-STD-001 standards. Additionally, we have a global supply chain capable of quickly supplying a wide range of materials. We provide comprehensive solutions for wire harnesses, from design through to manufacturing and inspection.

Air travelers will have temperatures checked quickly with technology As more people receive COVID-19 vaccines, travelers are itching to visit friends and family and take vacations again. Here's how airlines in one major U.S. airport will help keep passengers safe.

The SCXMC-HDLC card operates through the XMC interface of the SBC and provides real-time communication for control and status data based on synchronization signals. It supports serial communication via the SBCRTM’s Micro D-sub 37-pin connector using a standard D-sub 9-pin interface, allowing long-distance transmission through LVDS signaling. With four transmit/receive channels, it achieves 1–8 Mbps per channel and delivers low-latency performance of less than 40 µs for real-time operations. A device driver program is required for 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, enabling fast and reliable control data communication across mission-critical components.

Supports non-destructive inspection of aircraft composite skin structures and is composed of a piezoelectric layer sensor, data acquisition equipment, and damage analysis software. Utilizes piezoelectric sensors to generate Lamb-wave and acquire signals, collecting data to accurately detect and assess composite damage. Visualizes inspection results on display such as damage location, size and index. - POD Accuracy: 1 inch 90% or more - POD Precision : Position error within 30 mm - 64 channels / 230 path reference detection time within 10 minutes - Sensor : Resonance resistance less than 400kΩ - Sensor : MIL-STD-810G - Sensor : RTCA DO-160 Section 23.0 - DAQ : x128 Piezoelectric sensor interface

- 3 axis Fiber Optic Gyroscopes / 3 axis MEMS Accelerometers - Operating Range: ± 490º/sec - Bias Repeatability(over temp. range) : ≤ 0.5º/hr (1σ, RMS) - In-run Bias Stability: 0.03º/hr (typical, 1σ) ≤ 0.05º/hr (max, 1σ) - Angle Random Walk : 0.025º/√hr (typical, 1σ) - Power Consumption: 5W @ 25℃ (< 8 W, @ - 40℃) - Input Voltage: + 5 V Lightweight Package: 790g (1.74 lbs)

The aerospace industry has brought one of humanity's oldest dreams to life, a dream that seemed out of reach for so long : the ability to fly, to travel among the stars. Symbolizing freedom, discovery and travel, airplanes bring people together and foster cultural exchange.