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

We have participated in almost all simulator projects for military aircraft currently in operation in the Republic of Korea (KT-1, KF-16, T-50, FA-50, TA-50, KUH, LAH, KF-21, C-130, etc.), and we produce everything in-house, from mechanism, battlefield, circuit, and firmware design to assembly and testing, using our own personnel and facilities.

This miniaturized system allows, depending on the desired configuration, to move very precisely between 1 and 3 sets of lenses over a stroke of several centimeters. The design has been optimized to ensure perfect alignment of the lenses and to minimize their tilt throughout the movement. This optomechanical system mainly consists of high-precision standard MPS and FAULHABER modules, such as brushless or stepper motors, ground ball screws with double nuts and linear ball bearings. It is particularly recommended for focusing a laser over a long distance, for example for the guidance of unmanned flying objects or for communication between flying objects. The number of lens sets, lens size and stroke can be configured at will.

Learn how Tronair has differentiated itself in the market by offering a diverse and unparalleled range of high quality GSE product lines.

Key Features Enhanced speed and precision with a powerful 30W laser Supports a wide range of high-performance materials including Nylon 11, Nylon 12, and TPU Dimensions: 685 x 645 x 1065 mm Build Volume: 165 × 165 × 300 mm Weight: 114 kg (excluding build chamber or powder) Specifications 30W fiber laser Maximized powder reuse to minimize material waste ________________________________________

With durable constructions, GORE-FLIGHT Microwave Assemblies provide reliable performance for critical aircraft systems. To improve signal integrity and reduce interference, they incorporate shielding that meets and even exceeds the 90 dB requirement. A consistent impedance of 50 ± 1 ohms ensures a lower insertion loss and more reliable VSWR than leading competitors, both before and after installation. GORE-FLIGHT Microwave Assemblies also deliver the following benefits: Durability for the Life of the System Cost-Saving Performance

The focus on buy-to-fly ratios highlights the contributing role that near net shape processing can offer. This has undoubtedly been a driver in increasing this service offering from AMA. As a major contributor in the aircraft manufacturing supply chain, this is a key area of development for AMA and its companies. Customers are increasingly looking to optimise their production processes. This is primarily driven by the need to maximise their own spindle time for core business activities, with AMA therefore undertaking some of the machining processes. It can take many forms, from simple cutting to more intricate processing in which near net shape pieces are supplied. Even in AMA businesses whose business is predominantly transactional (so called ‘spot business’) rather than contractual, the processing element is increasing. Pre-machined kits of parts to individual specifications are becoming more commonplace. In addition to freeing up time for customers and OEMs to focus on more profitable final processing, near net shape processes can improve product quality, reduce variability and enhance component design functionality. As the industry continues to search for ways to lower buy-to-fly ratios and reduce the amount of waste, near net shape processing will have a greater role to play.

Our PIT systems are built to withstand the toughest weather conditions and meet international aviation standards. Our versatile configurations are tailored to your operational needs - from compact access units to advanced pop-up mechanisms. PIT system types: MINIPIT Hatch Systems – Compact and simple underground solution for smaller aprons or light traffic zones. Standard Hatch PIT Systems – Durable and reliable access pits for electrical, fuel, and IT systems under the apron. Pop-Up PIT Systems – Mechanized lifting PIT system for convenient and fast surface access when needed. Each system offers specific advantages depending on the scale, type of aircraft, and regional standards of your operations.