SAF-FIRES™ is a standards-based, image generator agnostic, and scalable Call-For-Fire and Close Air Support training simulation with autonomous Smart Trainer suitable for deployment in Joint Fires and accreditable JTAC training simulators. Built upon the same Call-For-Fire and Close Air Support software engine that powers the accredited simulation Fires FST™, SAF-FIRESTM delivers the same mature and complete Joint Fires training solution but makes it available for integration with any DIS, HLA or CIGI compatible simulation or Image Generator. Supporting both conventional near-peer and counter-insurgency operational scenarios, SAF-FIRES™ enables JFOs and JTACs to train realistically in a modern complex battlespace against an agile and adaptive adversary. Heightened realism and cognitively challenging training are enabled through the incorporation of non-combatants, urban clutter, UAV surveillance, various close air support platforms and accurate military targeting procedures.

Slim, ergonomic full coverage vest Taktic buckle system for quick connect & release Antibacterial/FR treated padded spacer mesh system Poly mesh cummerbund for increased ventilation Flush admin chest pocket with internal elastic straps PALS webbing for MOLLE attachment Zipper for MV Assaulter's Zip-On Back Panels Increased structural integrity and reduced rear deformation Compatible with our entire accessories line Soft armor included Composition Material : 500D Cordura® + ARAMID / PV® Size : Small : 8.5" x 11.5" Plate Pocket Medium : 9.3" x 12.3" Plate Pocket Large : 10" x 13" Plate Pocket XLarge : 10.9" x 13.8" Plate Pocket Colors MC (MultiCam) BMC (Black MultiCam) BK (Black) RG (Ranger Green) CYT (Coyote Brown)

Liquid Measurement System (LMS) capacitance AC and DC fuel gauging probes use lightweight and durable carbon composite materials. In addition to being some of the lightest fuel probes in the industry, they are also virtually immune to corrosion, cracking, dents, and extreme field conditions. Our capacitance probes are inherently crash resistance by collapsing onto itself during hard impact landings to avoid tank penetration and fuel leaks. All electrical connections on the probe are bonded, and there is no friction or riveted electrical connections.

C-UAS and Advanced Threats 70kW CBC HEL Effectors

Drones can also be remotely controlled using a control system for real-time route changes, mission aborts, emergency returns, and area patrol commands. Furthermore, based on their precise attitude control and location recognition capabilities, they can define and perform tasks such as recognizing specific objects and precisely landing at designated locations.

- 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)

- Application of patented expansion technology to resolve narrow space operation. - Equipped with camera function utilizing foldable mast. - Drone take-off and landing system using internal lift. - Equipped with a monitor for situational identification and a console for drone operation control.

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).