Hydraulics International, Inc. (HII), headquartered in Chatsworth, California, U.S.A., is a leading worldwide supplier of integrated products, services and support to military forces, aviation and commercial industries, Government agencies and prime contractors. Focused on defense and commercial technology, the Company develops, manufactures and supports a broad range of systems for over one hundred industries as well as mission-critical and military sustainment requirements over the globe. Our extensive design capabilities enable us to produce the most sophisticated technological units known in the Aircraft Ground Support Equipment (AGSE) profession.

HII has been recognized as one of the largest defense ground support equipment technology companies in the world. We hold leading market positions in ammunition loading systems, aircraft hydraulic system testing, aircraft cabin pressure testing, power systems, environmental control systems, military trailers, high-pressure gas and liquid systems, flow measuring equipment, and integrated logistics and support services.

Our corporate, engineering and manufacturing facilities, located in Chatsworth, CA and Forsyth, GA, encompass over 625,000 sq. feet of production space. Our manufacturing facility is equipped with state-of-the-art equipment such as CNC lathes and mills, computerized tube bending, full sheet laser and waterjet, automatic press brake and programmable punch press, laser topography scanners, and other quality verification devices.

The Integrated Weather Observation System (IWOS®) is the compact, wireless, rugged weather station that can be customized to any customers’ specific needs. This system can replace legacy weather stations that require hardline power or extensive infrastructure for permanent installation. It integrates up to eight environmental sensing modules with optional satellite communication in a package that fits into a single case and weighs less than 25 lb. In addition to its portability, performance, and professional-grade construction, the modular design of the IWOS lends itself to higher accuracy, higher availability, and a lower lifecycle cost thanks to its easily replaceable and serviceable modules.

Optimized Friction Materials: Ensures consistent braking performance under diverse operational conditions. Extended Service Life: Designed to reduce wear and improve cost-efficiency for operators. Enhanced Safety & Reliability: Engineered to comply with global aviation standards for maximum operational safety. Sustainable Technology: Developed with advanced manufacturing processes that minimize environmental impact.

- Installed on the fuselage or tail to provide flash lighting in a location that does not impede the visibility of position lights - The reflector rotates in an arc. - Flash Rate : 40 to 100 times per minute [cycle] - Effective Intensity : FAA FAR 29.1401 - SAE ARP 5825A

This tactical multi-purpose carrier is an oversized 250L (55cm x 43cm x 111cm) rolling duffel bag, the first of its kind in Korea. It can store drones, portable communication equipment, duty/training gear and accessories, firearms, body armor, battle belts, helmets, tactical vests, and personal gear all in one, making it the first tactical carrier of this type in Korea. The bag allows easy access to necessary equipment during operations, thereby enhancing the efficiency of both missions and training. The exterior features a total of 10 pockets (5 on each side), including dedicated ammunition storage pockets, enabling systematic management of equipment and flexible deployment. Made of high-strength 1000D Cordura nylon, the material resists deformation even after long-term use, and its water-resistant coating protects equipment from rain, dust, and daily wear.

Presentation by Haigh Farr during the Virtual NH Career Fair, hosted by JobsInNH.

- Seamless integration with all CAD models - Specialized for UAM and eVTOL design - Supports analysis of complex aerodynamic phenomena - Accurate prediction of airflow under subsonic and supersonic flight conditions - Detailed analysis of boundary-layer flow separation and viscous effects