Flux Cored Wire

AWS: SFA 5.5, E 7010P1 EN ISO 2560 A E 42 2 C 21
AWS: A 5.1, E 6011 EN ISO 2560 A E 38 3 C 21
AWS : A 5.1, E 7015 EN ISO 2560 A E 38 3 B 32 H5
AWS : SFA 5.1, E 7018-1 H4 R EN ISO 2560 A E 46 3 B 32 H5
AWS : SFA 5.1, E 7018 H4 R EN ISO 2560 A E 42 3 B 32 H5
AWS : SFA 5.5, E 8018 B8 EN ISO 3580 A E CrMo 9 B 32 H5
AWS : SFA 5.5, E 9018G
AWS : SFA 5.5, E 9018M IS : 1395E 63 BG129Fe EN ISO 18275 A E 55 4 1.5NiMo B 32 H5
AWS: SFA 5.5, E 9018 -D1 IS: 1395: E 63BD 1241 EN ISO 18275 A E 55 3 Z B 32 H5
AWS : SFA 5.5, E 9018 B3L IS : 814E 53 B-B3-26 Fe EN ISO 3580 A E CrMo 2 L B 32 H5
AWS : SFA 5.5, E 10016 G IS : E G8BG126 EN ISO 18275 A E 62 3 Z B 32 H5
SFA 5.5 AWS E 12018M EN ISO 18275 A E 69 5 Z B 32 H5
AWS: SFA 5.5, E 9018 –D3 IS : 1395: E 63BD 1241
AWS : SFA 5.5, E 8018 D3 EN ISO EN ISO 18275 A E 46 4 Z B 32 H5
AWS : SFA 5.5, E 8015 B6 EN ISO 3580 A E CrMo 5 B 32 H5
AWS : SFA 5.5, E 9015 B9 EN ISO 3580 A E CrMo 9 1 B 32 H5
AWS : SFA 5.5, E 8018-C2 IS: 814E 55 Bc22gFe EN ISO 2560 AE 46 6 3Ni B 32 H5
AWS : SFA 5.5, E 8018-C 1 EN ISO 2560 A E 46 6 2Ni B 32 H5
AWS : A/SFA 5.5, E 8018 W2 EN ISO 2560 A E 46 5 Z B 32 H5
AWS : SFA 5.5, E 8018-C 3 EN ISO 2560 A E 46 4 1 Ni B 32 H5
AWS : SFA 5.5, E 8018 B3L IS: 1395E 55 B-B3-26 Fe EN ISO 3580 A E CrMo 2 L B 32 H5
AWS : SFA 5.5, E 8018-B1 EN ISO 3580 A E CrMo 0.5 B 32 H5
AWS : SFA 5.5, E 8016-C2L EN ISO 2560 A E 46 6 3Ni B 32 H5
AWS : SFA 5.5, E 8016 G EN ISO 2560 A E 46 5 1 Ni B 12 H5
AWS : SFA 5.5, E 8016 B2 EN ISO 3580 A E CrMo 1 B 32 H5
AWS : SFA 5.5, E 7018 G EN ISO 2560 A E 42 5 Z B 32 H5
1) Redry electrode at 250 °C for 2 hours. Keep the arc as short as possible.
AWS : SFA 5.5, E 7018 C3L EN ISO 2560 A E 42 5 1Ni B 32 H5
AWS : SFA 5.5, E 7018 B2L EN ISO 3580 A E CrMo 1 L B 32 H5
AWS : SFA 5.5, E 7015 B2L EN ISO 3580 A E CrMo 1 L B 32 H5
AWS : SFA 5.4, E 308L - 16 IS : E 19 - 9 LR - 16
AWS : SFA 5.4, E 309 L Mo - 17 EN ISO 3581 A E 22 12 2 LR 12
AWS : SFA 5.4, E 309 - 15 EN ISO 3581 A E 22 12 B 22
AWS : SFA 5.4, E 310 - 17 EN ISO 3581 A E 25 20 R 12
AWS : SFA 5.4, E 310 - 15 EN ISO 3581 A E 25 20 B 22
SFA 5.4 AWS E 410 - 15 EN ISO 3581 A E 13 B 22
SFA 5.4 AWS E 410 – 15 NiMoX EN ISO 3581 A E 13 4 B 22
AWS : SFA 5.4, E 320LR - 16
AWS : SFA 5.4, E 309 Cb - 15 EN ISO 3581 A E 22 12 Nb B 22
AWS : SFA 5.4, E 316/ 316 L - 16 EN ISO 3581 A E 19 12 3 LR 12
AWS : SFA 5.4, E 316 L - 15 EN ISO 3581 A E 19 12 3 LB 22
AWS : SFA 5.4, E 316/ 316 L - 17 EN ISO 3581 A E 19 12 3 LR 12
AWS : SFA 5.4, E 308L - 15 EN ISO 3581 A E 19 9 LB 22
AWS : SFA 5.4, E 308L - 17 EN ISO 3581 A E 19 9 LR 12
AWS : SFA 5.4, E 347-15 EN ISO 3581 A E 19 9 Nb B22
AWS / SFA 5.4 E 2594 -16 EN ISO 3581 A E 25 9 4 N L R 12
AWS / SFA 5.4 E 2553 -16 EN ISO 3581 A E 25 9 3 CuN LR 22
AWS / SFA 5.4 E 2209 -16 EN ISO 3581 A E 22 9 3 N
AWS: SFA 5.4, E 385 - 16 EN ISO 3581 A E 20 25 5 CuN LR 12
AWS A/ SFA 5.4 E 312- 16
AWS: SFA 5.4, E 307 - 15 DIN – 8556 E 18.8 Mn B 20
AWS:SFA 5A, E3o9L -17 EN ISO 3581 A E 22 12 LR 12
AWS : A / SFA 5.11, E Ni Cu - 7 EN ISO 1472 A E Ni 4060
AWS A/SFA 5.15, Est. EN ISO 1071 A EC Fe 1 3
AWS: SFA 5.11, E Ni -1 EN ISO 14172 A E Ni 2061
AWS : E Ni Ci EN ISO 1071 A EC Ni-Ci-1
AWS: SFA 5.11, E NiCrMo-6 EN ISO 14172 A E Ni 6620
AWS / SFA 5.11 E NiCrMo – 3 EN ISO 14172 A E Ni 6625
AWS: SFA 5.11, E NiCrFe-2 EN ISO 14172 AE Ni 6082
AWS: SFA 5.11, E NiCrFe-3 EN ISO 14172 A E Ni 6182
AWS : A / SFA 5.6, E Cu Ni EN ISO 24373 A S Cu 7061
AWS / SFA 5.6 E Cu Sn - A
AWS A / SFA 5.20 E71T-12 C EN / ISO 17632 A T383RC1H5
AWS A / SFA 5.20 E71T-12 MJ EN / ISO 17632 A T384RM1H5
AWS A / SFA 5.20 E71T-1M EN / ISO 17632 A T422RM1H5
AWS A / SFA 5.20 E71T-1C, EN / ISO 17632 A T422RC1H5
AWS A / SFA 5.20 E71T-1C, EN / ISO 17632 A T422RC1H5
AWS A / SFA 5.20 E71T-1C, EN / ISO 17632 A T422RC1H5
AWS A /SFA 5.20 E71T-9C EN / ISO 17632 A T423RC1H5
AWS A / SFA 5.20 E71T - 5C EN / ISO 17632 A T423BC1H5
AWS A / SFA 5.20 E70T-1C EN / ISO 17632 A T422RC3H5
AWS A / SFA 5.20 E71T-1C
AWS A / SFA 5.20 E70T-4 EN / ISO 17632 A T42ZRN3H5
AWS A / SFA 5.20 E70T-5 C EN / ISO 17632 A T423BC3H5
AWS A / SFA 5.20 E71T-1C H4 EN / ISO 17632 A T422RC1H5
AWS A / SFA 5.29 E 100 T5-D2C EN ISO 18276 A T624MnMoBC3H5
AWS A / SFA 5.29 E91T1-B3 C EN ISO 17634 A TCrMo2RC1H5
AWS A / SFA 5.29 E90T5-B3 C EN ISO 17634 A TCrMo2BC3H5
AWS A / SFA 5.29 E90T5-K2 C EN ISO 18276 A T555Mn1.5NiBC3H5
AWS A / SFA 5.29 E81T1-K2C EN ISO 17632 A T4631.5NiRC1H5
AWS A / SFA 5.29 E91T1-Ni2 C EN ISO 18276 A T5542NiMoRC1H5
AWS A / SFA 5.29 E81T1-W2 C EN ISO 17632 A T4631NiRC1H5
AWS A / SFA 5.29 E81 T5 - B2 C EN ISO 17634 A TCrMo1BC1H5
AWS A / SFA 5.29 E91T1-B9C EN ISO 17634 A TZRC1H5
AWS A / SFA 5.29 E81T1-B8C EN ISO 17634 A TZRC1H5
AWS A / SFA 5.29 E 81T1- B6C EN ISO 17634 A TCrMo5RC1H5
AWS A / SFA 5.29 E81T1-A1C EN ISO 17634 A T(Mo)RC1H5
AWS A /SFA 5.29 E81T1-B1 C EN ISO 17634 A TZRC1H5
AWS A / SFA 5.29 E81 T1 - B2 C EN ISO 17634 A TCrMo1LRC1H5
AWS A / SFA 5.29 E80 T5 - B2 C EN ISO 17634 A TCrMo1BC3H5
AWS A / SFA 5.29 E 80T1-B6 C EN ISO 17634 A TCrMo5RC3H5
AWS A / SFA 5.29 E110T5-K4 C EN ISO 18276 A T695Mn2NiCrMoBC3H5
AWS A/ SFA 5.29 E80T1-K2 C EN ISO 17632 A T4631.5NiRC3H5
AWS A / SFA 5.29 E80 T5- K1 C EN ISO 17632 A T4641NiMoBC3H5
AWS A / SFA 5.29 E81T1-Ni1 C EN ISO 17632 A T4631NiRC1H5
AWS A / SFA 5.29 E71T5 - A1 C EN ISO 17632 A T383MoBC1H5
AWS A / SFA 5.29 E81T1-Ni2 C EN ISO 17632 A T4642NiRC1H5
AWS A / SFA 5.29 E91T1- GC EN ISO 18276 A T5531NiMoRC1H5
AWS A / SFA 5.29 E 91T1-D1 C EN ISO 18276 A T554MnMoRC1H5
AWS A / SFA 5.29 E 90T5-D2 C EN ISO 18276 A T555MnMoBC3H5
AWS A / SFA 5.29 E 81T1- G C EN ISO 17632 A T462Mn1NiRC1H5
AWS A / SFA 5.29 E111T1 -K3C EN ISO 18276 A T692Mn2NiMoRC1H5
AWS A / SFA 5.29 E101T1 -K3C EN ISO 18276 A T622Mn2NiMoRC1H5
AWS A / SFA 5.29 E111T1 - GC EN ISO 18276 A T694Mn2NiMoRC1H5
AWS A / SFA 5.29 E121T1- G C EN ISO 18276 A T793Mn2NiMoRC1H5
AWS A /SFA 5.29 E110T1- K4 C EN ISO 18276 A T692Mn2NiCrMoRC3H5
AWS A/ SFA 5.29 E111T 1- K4C EN ISO 18276 A T692Mn2NiCrMoRC1H5
AWS-SFA A 5.18 E70C- 6MH4 EN ISO 17632 A T383MM3H5
AWS A / SFA 5.22 E309LT1-1 EN ISO 17633 A T2312LRC1
AWS A / SFA 5.22 E 2594T1-1 EN ISO 17633 A T2594CuNLRC1
AWS A / SFA 5.22 E2553T1-1 EN ISO 17633 A T2594CuNLRC1
AWS A /SFA 5.22 E 410NiMoT0-1/4 EN ISO 17633 A T134RM213
AWS A /SFA 5.22 E 410T0-1 EN ISO 17633 A T13RC3
AWS A /SFA 5.22 EC 409 EN ISO 17633 A T13TiRM133
AWS A / SFA 5.22 E 317LT1-1
AWS A/ SFA 5.22 E307 T1-1 EN ISO 17633 A T189MnMoRC1
AWS A / SFA 5.22 E2209T1-1 EN ISO 17633 A T2293NLRC1
AWS A / SFA 5.22 E312T1-1 EN ISO 17633 A T299RC1
AWS A / SFA 5.22 E316HT1-1 EN ISO 17633 A T19123NbRC1
AWS A / SFA 5.22 E 316LT1-1 EN ISO 17633 A T19123LRC1
AWS A / SFA 5.22 E308 LT1-1 EN ISO 17633 A T199LRC1
AWS A / SFA 5.22 E308 HT1-1 EN ISO 17633 A T199NbRC1
AWS A / SFA 5.22 E309LMoT1-1 EN ISO 17633 A T23122LRC1
AWS A / SFA 5.22 E309HT1-1EN ISO 17633 A TZRC1
AWS A / SFA 5.18 E70C - 3MH4 EN ISO 17632 A T382MM3H5
AWS A / SFA 5.28 E80C-GM EN ISO 17632 A T460MM3H5
AWS –SFA A 5.9 ER 308H EN ISO 14343 A G/W 19 9 H
AWS A/ SFA 5.18 Class ER 70S-2 EN ISO 14341 A G/W 46 3 M G2Ti
AWS- SFA A 5.9 ER 316L EN ISO 14343 A G/W 19 12 3 L
AWS- SFA A 5.9 ER 316 EN ISO 14343 A G/W 19 12 3
AWS –SFA A 5.14 ER NiCu7 EN ISO 18274 S Ni 4060
AWS –SFA A 5.14 ER NiCrMo3 EN ISO 18274 A S Ni 6625
AWS –SFA A 5.14 ER NiCr3 EN ISO 18274 A S Ni 6082
AWS / SFA 5.7 ER Cu EN ISO 24373 A S Cu 1898
AWS / SFA 5.9 ER 2209 EN ISO 14343 A G/W 22 9 3 N L
AWS / SFA 5.9 ER 410 EN ISO 14343 A G/W 13
AWS/ SFA A 5.9 ER 385
AWS –SFA A 5.9 ER 347 EN ISO 14343 A G/W 19 9 Nb
AWS –SFA A 5.9 ER 317L EN ISO 14343 A G/W 19 12 3 L
AWS –SFA A 5.9 ER 312
AWS –SFA A 5.9 ER 310 EN ISO 14343 A G/W 25 20
AWS / SFA 5.9 ER 309 L Mo EN ISO 14343 A G/W 23 12 2 L
AWS- SFA A 5.9 ER 309L EN ISO 14343A G/W 23 12 L
AWS- SFA A 5.9 ER 309 EN ISO 14343A G/W 23 12 L
AWS / SFA 5.9 ER 309 Mo EN ISO 14343 A G/W 23 12 2
AWS/ SFA A 5.9 ER 308L Si
AWS –SFA A 5.9 ER 308L EN ISO 14343 A G/W 19 9 L
AWS –SFA A 5.9 ER 308H EN ISO 14343 A G/W 19 9 H
AWS –SFA A 5.9 ER 308 EN ISO 14343 A G/W 19 9
AWS/ SFA A 5.9 ER 307 Mod
AWS –SFA A 5.28 ER 90SG EN ISO 16834 A G/W CrMo 2 Si
AWS –SFA A 5.28 ER 90SB3 EN ISO 21952 A G/W Z CrMo2 Si
AWS –SFA A 5.28 ER 80SG EN ISO 16834 A G/W Z Mn3Ni1Cu
AWS /SFA A 5.28 ER 80SB2 EN ISO 21952 A G/W Z CrMo1 Si G
AWS / SFA 5.7ER Cu Ni EN ISO 24373 A S Cu 7061
AWS / SFA 5.7ER Cu Ni EN ISO24373 A S Cu 7158
AWS / SFA 5.9 ER 2594 EN ISO 14343 A G/W 25 9 4 N L
AWS/ SFA 5.28 ER 80SB6 EN ISO 21952 A G/W CrMo 5 Si
AWS : A 5.18 ER 70S-6 EN ISO 14341 A G/W 46 3 M G3Si1
AWS : A 5.1 8 ER 70S-3
AWS –SFA A 5.28 ER 90SB9 EN ISO 21952 A G/W CrMo 91
AWS –SFA A 5.9 ER 320
Royal Arc is a prominent manufacturer of Flux Cored Wires, boasting an extensive array of wire products tailored to various electrical applications. With over three decades of industry experience, we have perfected the quality of our products for both commercial and industrial purposes. Since our establishment, we have consistently delivered a comprehensive range of resilient products, including: – Nickel wire Nickel wire offers a valuable combination of properties: excellent corrosion resistance for use in harsh environments, high-temperature tolerance for applications exposed to heat, and moderate electrical conductivity. – Cobalt wire While less common, cobalt wire is a highly magnetic option for electromagnets and transformers. It also boasts exceptional strength and wear resistance at hot temperatures. – Aluminum wire Aluminium flux-cored wire is a lightweight, cost-effective option for electrical applications requiring conductive filler metal. – Copper wire Copper wire is a highly conductive wire formed by drawing copper metal. Due to its exceptional electrical conductivity, ease of shaping, and corrosion resistance, it is the most widely used wire in electrical applications. – Steel wire Steel wire is a robust and cost-friendly metal used in various forms. Due to its range of strengths and affordability, it acts as a versatile filler metal in flux-cored welding. – Galvanised steel wire Galvanised steel wire is a corrosion-resistant version of steel wire. A zinc coating shields the steel core, offering superior protection against rust and wear, making it ideal for harsh environments.
Our company is at the forefront of Flux-Cored Wire manufacturing. We have top-notch machinery and skilled workers. Our in-house lab ensures our products meet high standards. These facilities enable us to produce top-quality Flux-Cored Wire. Our infrastructure supports various operations, such as production, quality control, and warehousing. It helps us maintain the excellence of our Flux Cored Wire. Our labs boast advanced equipment for accurate quality assurance. We thoroughly examine raw materials before production. It guarantees our Flux Cored Wire meets global standards, and we believe in delivering the best welding electrodes.
We’re dedicated to innovating welding solutions through research and development, especially when launching new welding products. Our focus is on providing enhanced services to all our clients. Implementing the ISO 9001 Quality Management System ensures that all our welding products, including flux-cored welding wire, meet global standards. Our production process is supervised by technically qualified engineers with over 20+ years of experience in flux-cored electrode manufacturing; backed by a team of skilled professionals, our design and development guarantee top-notch quality in flux-cored welding wire production.
Industries use flux-cored wires for joining, wear protection, and repairs. Our production of the best flux-cored wire utilises cutting-edge technology and premium materials, ensuring high quality. These wires come in various sizes and specifications and undergo rigorous industrial tests to maintain their excellence. FCAW, a semi-automatic or automatic arc welding technology, employs flux-cored wire. It has been in use since the 1960s and remains prevalent today. It is versatile and can weld thin materials like aluminium, copper, and steel, as well as thicker materials like stainless steel and titanium alloys. Industries like aircraft and automotive parts predominantly rely on this process. FCAW’s single electrode with constant current allows precise control over the welding process, enhancing heat transfer between the electrode and workpiece. This precision surpasses other arc welding processes like GTAW (Gas Tungsten Arc Welding) or MIG (Metal Inert Gas).
There are two common types of flux-cored wires: gas-shielded and self-shielded. As the name suggests, the gas-shielded flux-cored wire needs an extra shielding gas, while the self-shielded variety does not. The flux coating on gas-shielded flux-cored wires solidifies faster than the weld material, creating a ledge that supports the molten pool during vertical or overhead welding. Insulated by gas, these wires are excellent for welding thick metals and out-of-position welding. They also simplify slag removal. The best welding electrode manufacturers offer self-shielding products that don’t require additional shielding gas. These electrodes produce gas while burning the flux, protecting the weld pool. Consequently, self-shielding wires are more portable since they create their protective layer without needing an extra gas tank.
Flux-cored wires, especially the best welding electrode ones, can turn FCAW into an “all-position” process when paired with suitable fillers. They typically deliver solid and clean welds while enabling a high deposition rate, even in windy outdoor conditions. These wires feature a copper core with thin insulation layers inside and outside. Due to their outstanding electrical properties, they use power distribution systems extensively. Choose Royal Arc for the best quality in the industry and durable materials that deliver seamless welding outcomes! Essential features of the Royal Arc Flux Cored Wire Royal Arc consists of the best flux-cored wire, which boasts high electrical conductivity and low resistance, ensuring efficient performance. These wires also feature high power density, low volume and weight, and ease of manufacture, making them highly efficient. The flux-cored wire functions as an electrical conductor. Its core comprises powdered metal and ferromagnetic material, simplifying compression into a dielectric medium like plastic or ceramic. An electric current passes through the wire by ionising the metal particles within the dielectric medium. The conductor comprises two coils wound with opposite polarity, connected by an insulating layer known as a sheath or jacket.

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