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.

The new Super-TAC IMU integrates three fiber optic gyros that exceed tactical grade performance with three high-accuracy Micro-Electro-Mechanical Systems (MEMS) accelerometers and state-of-the-art support electronics in a single small, lightweight package. This solution addresses the need for superior inertial performance in a tactical- grade package, critical for operation in GPS denied and contested environments. The Super-TAC IMU measures change in velocity and angle, utilizing a configurable variable synchronous data link control (SDLC) digital serial bus. The Super-TAC is configured to offer customers the best value solution when designing new systems as well as provide the flexibility to upgrade existing platforms. The Super-TAC IMU employs state-of-the-art optics with fewer components, providing significant performance and reliability improvements across standard military environments. Background Emcore, located in Budd Lake, NJ has been designing, developing and producing inertial components, sensors and navigation systems for Space, Ground, and Avionic applications for over 35 years. Emcore has been developing Fiber Optic Gyros (FOGs) since the early 1990s, producing and delivering IMU products with performance ranging from tactical to strategic grade PERFORMANCE GYRO PERFORMANCE Bias Stability < 0.05 °/hr. (1σ) Angle Random Walk ( ARW) ≤ 0.01 °/√hr. (1σ) Scale Factor Repeatability ≤ 100 ppm (1σ) Scale Factor Linearity ≤ 50 ppm (1σ) Angular Rate Range 1,000 °/sec Acceleration Range 100,000 °/sec2 ACCELEROMETER PERFORMANCE Range ± 25 g Bias Variation ≤ 50 μg (1σ) Scale Factor Stability ≤ 300 ppm (1σ) SYSTEM PERFORMANCE Bandwidth (adjustable) 800 Hz (gyros) 150 Hz (accelerometers) MTBF >25,000 hr.

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.

High density, lightweight signal connector specifically designed for applications where space and weight is at a premium for board to board interconnections. The HDLP series meets the requirement of space-constrained applications that require low mating force, a high number of mating cycles, low and stable contact resistance, and excellent fretting corrosion resistance.

Our first drone design, the ZenaDrone 1000, is an intelligent unmanned aerial vehicle that incorporates machine learning software and artificial intelligence. It was originally created to revolutionize the farming sector, and has evolved into a multifunctional heavy-lift drone for different industries. The ZenaDrone 1000 comprises innovative software technology, compact hardware components and customizable functionalities designed for industrial uses in construction, agriculture, surveillance, military applications search and rescue, and environmental inspection. We recently launched our second commercial drone, the ZenaDrone IQ Square. The ZenaDrone IQ Square is a micro drone designed primarily for indoor use. It has autonomous inspection and monitoring functions and can self-regulate through integrated multiple sensors, cameras, and interconnectivity conduits. This drone has a sleeker, more portable design with superior video transmission and sensing systems for reliable aerial visual data. The advanced drone technology of ZenaDrone IQ Square is highly integrative to various industries for better performance through its convenient micro drone compact design. The ZenaDrone technology continuously adapts to the different needs of companies in various industries requiring customization of drone capabilities and drone attachments, to meet each client's individual business operation specifications.

Antibacterial/FR treated padded spacer mesh system Poly mesh cummerbund for increased ventilation XFrame® Dynamic Load Carrige® compatible Compatible with our entire accessories line Flush admin chest pocket with internal elastic straps PALS webbing for MOLLE attachment Zipper for Assaulter's Zip-On Back Panels QASM buckle system Holds up to five 5.56mm magazines Internal plate pocket retention straps accommodate several different plate thickness Soft armor included Composition Material: 500D Cordura® + ARAMID/PV® Size : Small / Medium : 8.5" x 11.5” -9.3" x 12.3" Plate Pocket Front Panel Area of Coverage : Length 13.25” Width 11" Large / XLarge : 10" x 13"- 10.9" x 13.8” Plate Pocket Front Panel Area of Coverage : Length 15" Width 12" Colors: MC (MultiCam) BMC (Black MultiCam) BK (Black) RG (Ranger Green) CYT (Coyote Brown)

Decontaminated and / or sterilized gloves PIERCAN has offered its customers decontaminated and/or sterilised gloves. This service is intended in particular for pharmacy environments (pharmaceutical laboratories, hospitals etc.) but it may also be for industries in which an extremely high level of cleanliness is now absolutely vital (space, military, research etc.).

The SCVPX-SSGM (Synchronous Signal Generation Module) generates synchronization signals to coordinate the operation and timing of various radar system components. It can generate synchronization signals using an internal clock, receive an external clock, or regenerate synchronization signals from external sources to maintain precise timing cycles. A device driver program is required for configuration and 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, providing precise timing synchronization across mission-critical subsystems.