항공 전자·소프트웨어 전문 기업으로, 항공기 현대화·통합·시험·인증까지 아우르는 맞춤형 항공전자 솔루션을 OEM·정부·공급사와 협업해 제공합니다.

The UHF-band TRX module features transmit diversity, allowing selection between two transmit ports and providing an output power of at least 1 W. It includes a gain control function for transmission and an internal local oscillator for IF-to-UHF upconversion. Transmit functions also include ALC (Automatic Level Control) and over-temperature protection. On the receive side, the module selects one of two input channels and performs downconversion. It supports AGC (Automatic Gain Control) with a response time of 80 µs, enabling real-time gain adjustment based on input signal level. The dynamic range of the receive input spans from -100 dBm to -20 dBm, and the noise figure is 5.0 dB or less. Both transmit and receive paths include built-in path self-test functions.

This EGR-Cooler prototype, developed in collaboration with Hyundai Motor Company, was fabricated using EOS Stainless Steel 316L, renowned for its excellent corrosion resistance and mechanical properties in demanding automotive applications. The part was additively manufactured over a period of 64 hours, demonstrating the advanced capabilities of metal 3D printing for precision and reliability. Unlike conventional designs, this innovative component integrates 14 separate parts into a single, unified structure, greatly simplifying assembly while enhancing operational efficiency. The implementation of a Triply Periodic Minimal Surface (TPMS) structure within the cooler significantly improves heat exchange performance and enables substantial weight reduction, meeting next-generation thermal management requirements. Partners Lab stands as a leader in Korean additive manufacturing technology, offering cutting-edge capabilities in OEM production and collaborative technical development for various industrial sectors. This EGR-Cooler, designed by nTopology, exemplifies our engineering expertise and commitment to delivering high-performance thermal products for automotive and beyond.

MOHOC® 2 builds on the success of the original MOHOC Camera with enhanced performance, improved usability, and modernised tactical integration. Purpose-built for defence, law enforcement, and emergency response professionals, the MOHOC 2 retains the patented helmet-contoured design and snag-free profile while introducing upgraded imaging, improved low-light sensitivity, and extended networking capabilities. Designed to perform in the harshest operational conditions, MOHOC 2 is IP68-rated, MIL-STD-810 tested, and capable of surviving 10 m submersion and 2 m drops. It delivers Full HD video at 60 FPS, high-resolution stills, and supports long-duration recording through external power sources. The camera operates silently with no flash or shutter sound, and offers multiple mounting options for helmets, MOLLE, and rail systems. With support for Wi-Fi control, stealth recording, and infrared capability in the IR model, MOHOC 2 is a mission-ready video solution built for today’s connected battlefield.

This unit(SOU) supplies sealing oil to prevent mixing of hydraulic oil and liquefied methanol gas inside of FBIV(Fuel Booster Injection Valve) when the main engine operates. SOU is divided into large bore main engine(60 bore over) and small bore main engine(50 bore below) type by the number of membrane accumulator. The main components consist of an oil tank, an electric motor, a hydraulic gear pump, an oil filter, a control block, accumulators, and various senses, transmitters and indicators.

Micro-D Twinax Connectors (MDTX) offer Twinax blindmate assemblies fitted into a low-profile metalized Micro-D style shell, high speed signalling capable of 100 Ohm differential pair matched impedance, maximum space utilization, ultra miniature size and high vibration capability, extremely light weight and modular with true signal integrity.

Application areas Car: Passenger Car, LDV, MDV, HDV, Van, etc. Other: Drone, Forklift, Ship, Train, Motorcycle, Heavy equipment, etc. Transportation: Mobile station, Tube skid for transportation

Our LiDAR uses a custom-designed laser that separates 1064 nm and 532 nm wavelengths from a single source, with two dedicated receivers capturing each set of data independently. Inside the system, the linear laser beam is refracted at a 10-degree angle through a prism to enable circular scanning. An RF module is also integrated for real-time equipment status monitoring. From circuit board design to component selection, every part of this system was developed in-house by multiple institutions. As a result, we have successfully eliminated reliance on foreign technology.