Description
Insulated Busbar 3PH 63A1M 3&6kA
Insulated Busbar 3PH 63A1M 3&6kA Specification Sheets:
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Insulated Busbar Systems
- Commonly used in switchgear, switchboards, and busway (or bus duct) installations.
- Also referred to as a solid insulated system (SIS).
- Insulated copper and aluminum bus bars are manufactured from solid aluminum or copper conductors.
- With a solid insulating medium between each phase conductor and ground.
Designed To Operate
- At phase potential, insulated bus bars are the power component of choice in applications ranging from transformer bushing connections to underground mining power distribution.
- The use of insulated copper conductors can enhance your design by minimizing circuit footprints and reducing turning radii, while eliminating creepage and clearance issues, resulting in more watts with less space.
What Are Busbars?
- An electrical busbar or a conductor bus bar, as the name suggests, defines a conductor or the aggregate of conductors that receive electric power from the incoming feeders, to further distribute it to outgoing feeders.
- Otherwise, an electrical bus bar is an electrical junction where the incoming and outgoing currents meet.
- The conductor busbar systems gathers electrical power in a centralized location.
How Do Busbars Work?
- Busbars are usually used to connect electrical power sources and loads.
- It connects the generator and main transformer in power busbar systems and also interlinks the incoming/outgoing transmission lines.
- The busbar is visibly a copper or aluminum strip that transfers electricity in a substation, electrical apparatus, or switchboards.
- The flexible bus bars are made using aluminum tubes with disc insulator strings on either side and gantries to support them.
- While rigid busbars get support on post insulators and are made using Aluminum tubes.
- The size of the bus bars determines the amount of current it can carry safely.
- The common shapes are flat strips, hollow times, etc. since these shapes can allow more heat dissipation of the large ratio of surface area to cross-section area.