The V61 camera represents COX’s next-generation un-cooled LWIR imaging technology, built to provide high-performance thermal imaging in a compact and reliable form factor. Utilizing a 12μm pixel pitch sensor with outstanding thermal sensitivity, the V61 delivers precise and sharp thermal images across a wide range of environments. It supports fast auto-focus and versatile zoom lens combinations, making it equally effective for both short-range monitoring and long-distance detection tasks. The camera is designed with real-time multi-format video output, supporting H.265, H.264, and MPEG streaming, ensuring compatibility with modern network systems.
What makes the V61 especially powerful is its adaptability—customers can freely combine the core with different optics to meet unique project needs, whether for industrial inspection, perimeter security, or scientific research. Its wide temperature measurement range and ability to provide reliable data even in demanding conditions establish the V61 as a truly versatile solution. In addition, with COX’s proprietary calibration expertise, the V61 guarantees accuracy and long-term stability, reducing operational risks while maximizing system performance.

Hydration port 2" Padded lumbar support Internal retention straps PALS webbing for MOLLE attachment Drag handle Antimicrobial/FR treated padded spacer mesh Top Front Exterior Pocket : 12.5" H x 9" W x 2.75" D Bottom Front Exterior Pocket : 10.5" W x 7.5" H x 2.75" D External Side Pockets : 11" H x 6.5"” W x 1.5" D Mesh Pockets : 10" H x 8" W & 7" H x 12.5" W Cubic Liters : 47.83L Dim. : 25" H x 13" W x 9" D Composition Material : 500D Cordura® + ARAMID / PV® Colors: MC (MultiCam) BMC (Black MultiCam) BK (Black) RG (Ranger Green) CYT (Coyote Brown)

Purposed for people carrying two or more radios (JTAC, LEADER, RTO, etc) Removable shoulder & waist straps can be adjusted to fit the end-user without removing the rack Attaching to select tactical plate carriers with the QASM buckle system or using stand-alone with H Harness Small 4-way stretch Tweave general purpose pouch (Qty.1) Magazine pouches for 5.56mm or 7.62mm mags (Qty. 2) PRC-152A or 148 radio pouches (Qty. 2) Removable antimicrobial/FR treated spacer mesh pad Compatibility : PICO-DSX, PICO-DS, PICO-MBAV, EPIC-FED, EPIC-LOC-MOL & EPIC-DSX Composition Material : 500D Cordura® + ARAMID / PV® Color : MC (MultiCam) BMC (Black MultiCam) BK (Black) RG (Ranger Green) CYT (Coyote Brown)

Robotic technology that combines IoT and autonomous driving technologies provides key solutions for future mobility manufacturing. Main Functions Innovative manufacturing system using Collaborative Robot and Autonomous Mobile Robot ptimize production processes and provide logistics flexibility Ensuring Optimal Production Process Using AI Application Site HMGICs : Flexible Production Cells (smart manufacturing) Targeted to supply to global manufacturing sites

AI Navigation Algorithm The Certus Mini range features Advanced Navigation’s revolutionary AI neural network sensor fusion algorithm. The algorithm was designed for control applications and has a high level of health monitoring and instability prevention to ensure stable and reliable data. High-Performance MEMS The Certus Mini range contains high performance MEMS sensors that are put through Advanced Navigation’s intensive 8 hour temperature calibration process. This provides the highest accuracy possible from this sensor class and outputs consistent accuracy over the full temperature range from -40°C to 85°C. Reliability The Certus Mini range has been designed from the ground up for mission-critical control applications where reliability is essential. Built using a safety-oriented real-time operating system, all software is designed and tested to high safety standards with fault-tolerance in mind. The Certus Mini range is designed, manufactured and tested to military standards. Linear Acceleration Compensation Certus Mini uses an innovative algorithm to compensate for linear accelerations. This allows Certus Mini to maintain accurate roll and pitch through short term linear accelerations that typically cause significant errors in competitors systems. For long term linear accelerations Certus Mini supports the addition of an external GNSS receiver for full acceleration compensation. Extensive Interoperability Certus Mini seamlessly communicates with a wide range of industry standard protocols including NMEA 0183 and CANOpen making it easy to integrate into existing systems. Certus Mini effortlessly interfaces with ROS 1, ROS 2, and Ardupilot, streamlining your development processes for maximum efficiency and effectiveness.

MIL-DTL-26482 seriesⅡ has the same contact arrangement as MIL-DTL-26482 series I, and the bayonnet coupling method is applied. The connection between the contact and the wire is a crimping method, which is different from 26482-I. It provides reliable fastening with 5 guide keys. It also has excellent EMI shielding ability and can be used with various additional parts of the M85049 standard, so it is applied to aviation, space, and various high-tech precision equipment.

The IMX-5 delivers Tactical Grade Inertial performance powered by TWO of the most powerful GNSS receivers on the market. Inside the aluminum enclosure, this sensor is prepared to take you through difficult terrain. The IMX-5 provides sensor fusion for roll, pitch, magnetic heading, velocity, RTK precision position and Dual GNSS Compass Heading. Features Tactical Grade IMU Dual Onboard Multi-Frequency (L1/L2) GNSS Receivers Dual GNSS Compassing RTK Centimeter Level Precision Rugged IP40 Aluminum Enclosure Gyro: 1.5 °/hr Bias Instability, 0.16 °/√hr ARW Accel: 19 µg Bias Instability, 0.02 m/s/√hr VRW 0.04° Dynamic Roll/Pitch 0.13° Dynamic Heading Fast Integration with SDK and Example Software Data Logging (SDK and Application Software)

Digital mission engineering tools connect every stage of the engineering product lifecycle, from initial design to operation. They enable reality-based 3D simulation across multi-domain environments such as air, space, land, and sea by incorporating high-resolution terrain, satellite orbits, RF and radar systems, and sensor environments to accurately replicate real mission conditions. With accurate dynamics-based physical models at the core, these tools provide quantitative analysis of relative positioning between systems, changes in altitude and attitude, line-of-sight availability, and communication link status. Users can predict and evaluate mission elements such as sensor operations, communication links, platform maneuvers, and orbit optimization through scenario-based simulations.