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

All units are equipped with a microprocessor-based MPCU controller that manages diagnostics, protection, and optional energy consumption monitoring systems. EAR rectifiers are trusted across ground support zones, hangars, and field operations.

The EMC-102 EDECU is configured as a common supervisory engine control for both T700-GE-701C/D and T700- GE-401C applications. Slated for use by the Army on current fielded models of Black Hawk helicopters, the control is configured with modern electronics, allowing for a more reliable alternative to the present Black Hawk control. The control unit is also compatible with the AH-64 Apache. The control is qualified to the latest Army requirements for superior operability in adverse environments.

DIVE (Digital Interactive Virtual Environment) is a GIS-based smart construction management platform jointly developed by ZYX Technology and Korea Expressway Corporation. Designed to meet the growing demand for intelligent infrastructure solutions, DIVE provides real-time integration, monitoring, and analysis of all location-based construction data. By consolidating diverse sources such as design drawings, land maps, aerial imagery, BIM data, drone footage, and CCTV into a single platform, DIVE enables comprehensive, on-site visibility and control. From large-scale infrastructure to complex tunnel projects, all key information can be accessed and compared in real time, allowing for smarter, faster, and more accurate decision-making. The main dashboard provides a live overview of each project site, including tasks, equipment, workers, events, and safety issues. With its daily work management feature, site managers can view exact personnel and equipment allocations for each zone, improving efficiency and minimizing risk. DIVE also supports seamless integration with tunnel monitoring systems, offering real-time access to excavation status, geotechnical sensors, and worker presence inside the tunnel. This ensures enhanced safety and process transparency in high-risk environments. Drone integration further strengthens site management by providing up-to-date aerial visuals, reducing blind spots and enabling rapid response to field changes. In addition, the platform links design drawings with cadastral maps to streamline permitting, track construction progress, and manage change orders with geographic accuracy. Whether you're building roads, tunnels, or complex infrastructure, DIVE empowers construction teams with a powerful digital environment to manage the entire project lifecycle.

Product Information Frequency signal generator for high-performance, high-precision target detection High-frequency resolution design and frequency conversion function using DDS method main performance Frequency: L-Band ~ X-Band Pulse Mode, Low spurious Output Level: -10~+15dBm Range Spurious: -55dBc min Harmonic: -50dBc min Phase Noise: High Performance Frequency Sensibility: 50ppm max Port isolation: 70dBc Min Applicable fields High-precision targeting guided weapon tower system and radar system can be applied

RFcore has been innovating MMIC solutions for phased array system pursuing more ease of use, higher performance, higher level of integration as well as lower cost. We believe that the most suitable way is exploiting properties of God gifted semiconductor Silicon and GaN. We aim at integrating all components of TRM for active phased array on single die and even multi-channel TRM too.

As a leading manufacturer in the world’s marine engine market, STX Engine provides all services related to design, manufacture, sales, after-sales services, etc., and is responding to diversifying market demands and severe regulations based on its long experience and know-how.

It is commonly used in industrial and other devices to generate triggers ranging from one to several thousand FPS, ensuring precise timing synchronization with various devices. Periodic Mode: Continuously generates trigger signals after configuration. Burst Mode: Generates a single trigger signal upon receiving the best command via serial communication. *** Product Expansion and Usage ***  Four Operating Modes  Periodic mode: Generates a single-cycle signal based on the configured frequency and duty ratio.  Burst mode: Generates a single-cycle signal synchronized with a software trigger.  External trigger mode: Generates a single-cycle signal synchronized with an external trigger.  External trigger bypass mode: Distributes signals triggered externally.  Connect the trigger output signals from a Master Trigger Generator to a Slave Trigger Generator (as shown below).  By connecting one of the Master TG’s Trigger Outputs (1 to 16) to the Slave TG’s External Trigger Input: Outputs 1 to 15 of the Master TG remain unchanged. Outputs 16 to 31 of the Slave TG will mirror the Master TG’s Trigger Output. (Note: Each trigger signal passing through a TG experiences a delay of ten ns. However, since trigger outputs operate in the range of tens to thousands of Hz, users will not notice the delay).  Example with 17 TGen-16C units: Produces up to 256 Trigger Output Channels (16 × 16).