1. Filler Metal Name Material/Alloy AWS W-No. ISO-No. Nickel 61 Ni A5.14 ERNi-1 2.4155 SiNi2061 MONEL® 60 Ni-Cu A5.14 ERNiCu-7 2.4377 SNi4060 MONEL® 67 Cu-Ni A5.7 ERCuNi 2.8037 SCu7158 INCONEL® 72 Ni-Cr A5.14 ERNiCr-4 SNi6071 NC 80/20 Ni-Cr 2.4639 INCONEL® 82 Ni-Cr A5.14 ERNiCr-3 2.4806 SNi6082 INCONEL® 622 Ni-Cr-Mo A5.14 ERNiCrMo-10 SNi6022 INCONEL® 625 Ni-Cr-Mo A5.14 ERNiCrMo-3 2.4831 SNi6625 INCO-WELD® 686-CPT Ni-Cr-Mo A5.14 ERNiCrMo-14 SNi6686 INCO-WELD® 725NDUR Ni-Cr-Mo A5.14 ERNiCrMo-15 SNi7725 INCO-WELD® C-276 Ni-Cr-Mo A5.14 ERNiCrMo-4 2.4886 SNi6276 INCONEL® 52 Ni-Cr-Fe A5.14 ERNiCrFe-7 SNi6052 INCONEL® 52M Ni-Cr-Fe A5.14 ERNiCrFe-7A INCONEL® 92 Ni-Cr-Fe A5.14 ERNiCrFe-6 SNi7092 INCONEL® 617 Ni-Cr-Co-Mo A5.14 ERNiCrCoMo-1 2.4627 SNi6617 NILO® CF36 Ni-Fe INCOLOY® 65 Ni-Fe-Cr A5.14 ERNiFeCr-1 SNi8065 INCONEL® 718 Ni-Fe-Cr A5.14 ERNiFeCr-2 2.4667 SNi7718 Titanium Grade 1 Ti A5.16-90 ERTi-1 Titanium Grade 2 Ti A5.16-90 ERTi-2 Titanium Grade 5 Ti-Al-V A5.16-90 ERTi-5 Titanium Grade 7 Ti-Pd A5.16-90 ERTi-7 2. Electrodes Name Material/Alloy AWS W-No. ISO-No. Nickel 141 Ni A5.11 ENi-1 2.4156 ENi2061 MONEL® 190 Ni-Cu A5.11 ENiCu-7 2.4366 ENi4060 MONEL® 187 Cu-Ni A5.6 ECuNi 2.0838 ECu7158 INCO-WELD® A Ni-Cr-Fe A5.11 ENiCrFe-2 2.4805 ENi6092 INCONEL® 152 Ni-Cr-Fe A5.11 ENiCrFe-7 ENi6152 INCONEL® 182 Ni-Cr-Fe A5.11 ENiCrFe-3 2.4807 ENi6182 INCONEL® 112 Ni-Cr-Mo A5.11 ENiCrMo-3 2.4621 ENi6625 INCONEL® 122 Ni-Cr-Mo A5.11 ENiCrMo-10 ENi6022 INCO-WELD® C-276 Ni-Cr-Mo A5.11 ERNiCrMo-4 2.4887 ENi6276 INCO-WELD® 686CPT Ni-Cr-Mo A5.11 ERNiCrMo-14 ENi6686 INCONEL® 117 Ni-Cr-Co-Mo A5.11 ERNiCrCoMo-1 2.4628 ENi6617

The SBC6511 Rugged Single Board Computer(SBC) from Abaco Systems features the new high performance, highly integrated Intel® Xeon® E processor (‘Coffee Lake Refresh’). Powered by Intel® Xeon® W processors, offering robust computational power. • Supports up to 64 GB DDR4 SDRAM with ECC and up to 256 GB (or in some variants up to 480 GB) NVMe SSD storage • Offers high-throughput networking: Dual 40 GbE data-plane (KR4 “fat pipes”) • Features the Xilinx® Zynq® UltraScale+™ MPSoC FPGA (ZU7EG) for enhanced security

Engineering is ABC's DNA. The areas of predilection are mainly: Fluidics (liquid and and gaseous) Electricity (strong and weak currents) Mechanics and heat Automation (PLCs and IT) Electronics Software engineering Each of these areas translates into measures in a global system approach. Our teams are involved in the functional knowledge of equipment and customer systems ...

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.

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The SCFAN-CTRL-5U is an internal fan control module installed inside the chassis to manage cooling performance. It integrates with FAN trays and operates through Kontron’s Power Supply Control Module (PSCM) to control up to one 12V @ 3.5A fan and seven 12V @ 2.5A fans. This module ensures efficient thermal management and stable system operation in high-performance VPX-based embedded systems. It is deployed in the M-SAM-II multi-function radar system, providing reliable and optimized cooling control for mission-critical environments.

The SC-SSGMRTM, a Seedcore Co., Ltd representative product, is a backplane transmission module that performs the I/O function of the SSGM(Synchronous Signal Generation Module). When the SSGM(Synchronous Signal Generation Module) board is plugged into the motherboard(Backplane) in front of the Chassis, you can extend the I/O function of the board by plugging the SC-SSGMRTM board into the back of the Backplane. Three 37-pin Micro D-sub ports are used to send synchronization signals generated by SC-SSGM to the outside or to receive external synchronization signals, Three separate MMCX output ports are prepared to support test equipment such as oscilloscopes, and you can convert them to various signals and output them.

Patria CANDL provides a single data link solution for communications requiring high reliability, such as UAS payload data and C2. It enables air-to-air and air-to-ground Ad Hoc Networking as well as relaying for BLOS capability, thus enabling capabilities such as MUMT - Manned UnManned Teaming and LVC – Live Virtual Constructive training. 8 Mbps data rate with additional safety features for C2, dynamic Ad Hoc Networking communication, motion video and digital voice capability are all integrated in one Software Defined Radio based compact airworthy terminal. Our CANDL covers NATO IV C-band as well as WRC 2012 defined civil UAS C2 frequency band in single housing enabling both military and civil UAS applications. Networking and range performance can be further extended with optional external HPA (High Power Amplifier) module. C2 & Payload Data Secure Command & Control for UAV platforms, payload and missiles Payload data (HD video, IR, SAR) for manned/unmanned platforms Distribution of situational awareness through networked data transfer for fighters Operation in GPS-denied environment Platform independent system (air, naval, ground) Legacy systems upgrade for enhanced performance Manned-Unmanned Teaming (MUMT) Force multiplier in hostile environment Multi-platfrom and swarming capability Mission distributed decision-making and co-ordination Optimisation of the role and performance of the platform on-the-fly Real-time communication through ad-hoc IP-network Live Virtual Constructive (LVC) Training Cost effectiveness utilising simulators and synthetic forces More demanding and easily scalable training scenarios Hiding warfighting tactics into secure digital environment Enabling complex training scenarios for manned and unmanned platforms Joint-networked, real-time communication between all Live, Virtual and Simulated assets