C Cores

We ae the l manufacturer of CT CORE products according to the specifications provided by the clients.

Powerlite C-Cores are manufactured with iron-based Metglas amorphous Alloy 2605SA1. Applications: UPS Harmonic Inductors and Solar and Wind Invertars and more

UMNCC-cores are manufactured with nanocrystalline iron based amorphous alloy. These cores provide high saturation flux density & very low losses as compared to the other conventional magnetic material. These cores are suitable for power transformer or inductor used in high frequency application

A4 Lamination Sheet

Vilas Transcore manufactures a wide range of strip would C Core, R Core, E Core and Cut Core to satisfy the demands of the electric and electrical industries in the manufacture of transformers, chokes, reactors and magnetic amplifiers. Core can be manufactured in material grade ZdKH, MoH, M4 etc. as per the specification of the customer. Cores can be manufacture in material thickness 0.23mm, 0.27mm, 0.30mm and 0.35mm. Cores are available in epoxy coating with varnish and bare cores according to customer specification.

TOROIDAL/RECTANGULAR CORES and C CORES out of Imported CRG

C Cores

Being a prominent firm in this domain, we are engaged in offering a distinguished assortment of C Type Transformer Core. Features: Perfect design Highly durable Easy to install

The cores of conventional transformers consist of stacks of laminations that are made from silicon steel with an almost uniform crystalline structure (CRGO). In transformers with Amorphous C Cores, a ribbon of steel is wound forming the core. The big benefit of amorphous metal core transformers is that amorphous steel has lower hysteresis losses. Simply put this means that less energy is wasted in magnetising and demagnetising it during each cycle of the supply current. The infrared pictures (above) illustrate this: The AMT core (left) shows a lot less heat than the CRGO core (right). The core of the majority of today s transformers is made of CRGO steel. When this is replaced by amorphous metal, the core loss of the transformer is reduced by as much as 75%. Advantages : Up to 75% energy saving over conventional silicone steel (CRGO) Reduced carbon dioxide emissions Reduction in fossil fuel consumption Reduced magnetising current Reduced temperature rise of coreAlso known as metallic glass alloys, they differ from traditional metals in that they have a non-crystalline structure and possess unique physical and magnetic properties that combine strength and hardness with flexibility and toughness.

UMNCC-cores are manufactured with nanocrystalline iron based amorphous alloy. These cores provide high saturation flux density very low losses as compared to the other conventional magnetic material. These cores are suitable for power transformer or inductor used in high frequency application

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AMORPHOUS METAL C CORES

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Winding continuous CRGO strips of the required width on a suitably dimensioned mandrel and thereafter subjecting the stress relief annealing manufacture cut C cores. It is then cut into two C shaped cores the mating faces of which are carefully ground and lapped so as to reduce the air gap to minimum and to remove any burrs arising from the cutting operation.

UMNCC-cores are manufactured with nanocrystalline iron based amorphous alloy. These cores provide high saturation flux density very low losses as compared to the other conventional magnetic material. These cores are suitable for power transformer or inductor used in high frequency application

C Cut Cores

C-Cores and E-Cores are manufactured with iron-based amorphous Alloy. Their unique combination of low loss and high saturation flux density take advanced power conditioning applications to higher performance levels than previously possible with conventional ferromagnetic materials.

C-Cores and E-Cores are manufactured with iron-based amorphous Alloy. Their unique combination of low loss and high saturation flux density take advanced power conditioning applications to higher performance levels than previously possible with conventional ferromagnetic materials.

Fe Based Nanocrystalline C Core

C Cores

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