Jlc Electromet Pvt. Ltd. Vishwakarma Industrial Area, Jaipur, Rajasthan

Nominal 2-4% by weight in thickness for NPS is used in lead wires for lighting applications. Higher nickel plating thickness (like 4%, 8%, 12% ) can be manufactured as per customer requirement. The nickel coating has uniform adhesion over the full length of the steel core wire.

CuSn Alloy is pure electrolytic copper-tin alloy in bare condition. Bare wire is used as the outer lead part of Lead-In- Wires of fluorescent tubes, automotive, and other lamps. NPCuSn Alloy is pure electrolytic copper-tin alloy, uniformly coated with nickel by electrolytic plating method. Nickel plated copper-tin alloy wire is used as the inner lead part of Lead-In-Wires for GLS, fluorescent tubes, automotive, sodium vapor lamps, mercury vapor lamps, etc.

Grades of NiFe also available. Please contact JLC for any other special grades of Nickel based MIG & TIG Wires. Wires >1.50mm diameter are available in wire-rods and coil as per the customer specification.

Nickel Plated Pteel Wire is a low carbon steel wire electroplated with nickel. It is used as the inner- lead component for lead-in-wires used in incadescent bulbs, fluoroscent tubes, halgen lamps, HID lamps, automotive, and other lamps. It is also used as a third wire to support the anode ring used in fluorescent tube lamps. NPS is also used for making music wire and for other applications that require corrosion resistance.

Pure electrolytic copper wire uniformly electroplated with nickel. This wire is used for inner-lead part in Lead-in-Wires of incandescent bulbs, fluorescent tube, halogen, HID, automotive, and other lamps. It is also used in cable industry for automotive and other electronics applications. 2-4% by weight or minimum of 2% by weight in thickness. Higher Nickel plating thickness (like 4% or 8%) can be manufactured as per customer requirement. The nickel coating has uniform adhesion over the full length of the copper core wire.

nickel iron alloys is a precipitation hardened alloy. It is essentially similar to JLC 400, but with minor additions of aluminum and titanium to the nickel-copper matrix. The resulting precipitates of Ni3(Ti, Al) impart high strength and hardness to the alloy.

nickel copper alloy finds use in applications that demand not only the excellent corrosion resistance offered by JLC 400, but also that require increased strength, hardness, and non-magnetic characteristics.

JLC 600 is a nickel-chromium-iron alloy that provides superior resistance to oxidation at temperatures up to 1000 °C. It also provides good resistance against stress corrosion cracking in chloride environments. This alloy also offers good mechanical properties and workability. Owing to its good corrosion resistance properties at high temperatures, it is widely used in chemical and heat treatment industries. Since it maintains good mechanical properties at high temperatures, it is also used in the aeronautical industry to manufacture various aircraft and engine components.

Standard Nickel Grades: Ni 200 Ni 201 Ni 205 / Ni 205 LC Ni 206 Nickel-Manganese Alloys: Ni 212 (NiMn2) Ni 211 (NiMn5) Nickel-Copper Alloys: JLC 400 (Ni67Cu30) JLC 500 Other alloy compositions can be made on request

We, at JLC, believe in continuous improvement; all processes are monitored at each step using statistical process control tools to ensure the best quality of the final products. The process for making each alloy is set after a detailed exercise using concepts such as Failure Mode Effect Analysis (FEMA) and Design of Experiments (DOE).

JLC Mang series is of copper-nickel alloys that are used for electrical and controlled resistance applications. These alloys have very low temperature coefficient of resistance, and offer uniform electrical resistance over long periods of time. Additionally, they have very low thermal electromotive force (EMF) against copper. These alloys have good workability, can be soldered, as well as welded. In addition to the two grades listed below, other variants of copper-nickel alloys are also available. Please contact JLC for more details.

Form : Wire

These are nickel-iron based alloys that are required for applications where a hermetic seal is required between metal and glass or ceramic. They are also used for applications where a certain thermal expansion is required over a given temperature range. Examples of such applications are light bulbs, vacuum tubes, optoelectronics, etc.

Owing to its good corrosion resistance properties at high temperatures, it is widely used in chemical and heat treatment industries. Since it maintains good mechanical properties at high temperatures, it is also used in the aeronautical industry to manufacture various aircraft and engine components.

A fuse wire is used in incandescent and fluoroscent tube lamps as circuit breakers when conditions of over-current or over-loading arise. Fuse wire makes up the outer-lead of one or both lead-in-wires. The following alloys can be used for fuse wires: NiCu30Fe, FeCrAl125, or FeNi43.

. They are easily soldered. Typical applications of these alloys are for electrical resistors and general resistance wire for heating wires, cables, and mats. They are also used as resistance elements of heaters for electrical circuit breakersfuses in heating cables with low temperatures. In ribbon form, they are used for heating bimetals.

These alloys are characterized by low electrical resistivity and low temperature coefficient of resistance. They provide good resistance against oxidation and chemical corrosion. They are easily soldered. Typical applications of these alloys are for electrical resistors and general resistance wire for heating wires, cables, and mats. They are also used as resistance elements of heaters for electrical circuit breakersfuses in heating cables with low temperatures. In ribbon form, they are used for heating bimetals.

JLC 800 offers corrosion resistance, heat resistance, and strength under high temperature conditions up to 600 °C. It is also resistant to stress corrosion cracking, oxidation, carburization, and sulfidation at high temperatures. It is readily formable, weldable, and machinable. The alloy maintains a stable austenitic structure during prolonged exposure to high temperatures.