The KF-21 is the project which aims to replae the aged fighters in operation, F-4, and F-5 of the Republic of Korea Air Force and develop the indigenous Korean fighter aircraft which is equipped with performances suitable for the future battlefield of the country's air force. Korea's largest-scaled KF-21 project is the national R&D project with a development span of 10 years and 6 months and is driven with Indonesia under international joint development. Based on its development experience and infrastructure of a homegrown airplane, such as the KT-1 basic trainer, T-50 Advanced Jet Trainer, TA-50 Lead-in-Fighter-Trainer, and FA-50 Light Combat Aircraft, KAI is under development of the KF-21 project successfully. Through this project, KAI plans to develop the aerospace technology of Korea and contribute to national peace and security as well as economic development.

A Main Generator installed in the K2 main engine that supplies power to the system.

The PolarFire FPGA and PolarFire SoC families already deliver the industry’s best thermal and power efficiency in the mid-range segment. Optimized for deploying systems with high-compute performance in small form factors, the families have reduced the size and weight of power-constrained systems in applications including industrial imaging, robotics, AI-enabled medical systems and smart defense and aerospace systems.

A REDCOM SVG system consists of one or more REDCOM Sigma® SVG-1200 units and a series of standard production General Dynamics Sectéra vIPer phones. Each REDCOM SVG-1200 can interface with up to 12 vIPer phones, which act as voice encryptors for TDM or VoIP voice networks. The encryptors allow any line, trunk, or conference port to conduct secure voice communications with any SCIP-capable device. If more than 12 secure talk paths are required, multiple SVG-1200 units may be networked together.

Original compact design and long-term production know-how. System reliability and overall competitiveness.

Plane Windows are used as substrates for a variety of applications, such as laser window, output couplers, beamsplitters, beam combiners, mirrors, dichroic filters and plate polarizers. Considerations in selecting window substrates include transmission range, absorption coefficient, incident laser power density and environmental factors such as pressure, temperature, moisture, abrasion and corrosion. Plane Windows listed under UV / VIS / NIR substrates are specified for applications involving coating wavelengths 193nm ≤ λ〈2.0 μm. Units for these substrates are given in mm. Plane Windows listed under IR substrates are specified for applications involving coating wavelengths λ≥ 2.0 μm. Units for these substrates are given in inches. Refer to the THIN FILM COATINGS section for information on coatings that can be applied to these substrates.

The SBC3612D is a rugged 3U VPX single board computer aligned with the compute-intensive SOSA profile, delivering high-performance processing with the Intel® Xeon® D-2775TE 16-core processor and flexible expansion capabilities. • Supports up to 64GB DDR4 SDRAM and 480GB NAND Flash (NVMe SSD) • Offers 100GbE and 10/25GbE data plane and control plane support • Features the Xilinx® Zynq® UltraScale+™ MPSoC FPGA for enhanced security

Active phased array fire control radar (AESA) for aircraft A fire control multi-function radar (MFR) that can simultaneously detect, identify, and track multiple targets, including in the air and on the ground, and has SAR and NCTR functions. Aircraft (fighter)-mounted AESA radar is a core sensor for fighter jets to perform day/night/all-weather multiple missions. It operates in multiple modes such as air-to-air/air-to-ground/air-to-sea/support mode, and acquires ground images and air/ground in electronic warfare situations. It is essential mission equipment for fighter jets that detects/tracks multiple targets and supports guided missile guidance and gun shooting.