Electrical Through Hole Slip Ring 18 Circuits 5 A 8 Circuits Signal 2 Circuits Shielded

Through Bore Slip Rings 18 circuits 5 A 8 circuits signal 2 circuits shielded Hole Size 12.7mm

Product Description:

Features:

• High Circuit Count: These Through Bore Slip Rings feature 18 circuits, providing ample channels for power transmission, signal transfer, and control in complex systems.

• Moderate Current Capacity: With a maximum current rating of 5 A per circuit, these slip rings are suitable for applications that require the transmission of moderate power loads.

• Signal Transmission: The 8 circuits dedicated to signal transmission ensure reliable and efficient transfer of control signals, data, and communication between rotating and stationary parts.

Typical Application:

• Water Treatment Plants: Through Bore Slip Rings are used in water treatment plants for applications such as rotating filtration systems, monitoring instruments, and control systems, facilitating power and signal transmission.

• HVAC Systems: These slip rings find applications in HVAC (Heating, Ventilation, and Air Conditioning) systems, enabling power and signal transmission for rotating components such as fans, dampers, and valves.

• Satellite Tracking Systems: Through Bore Slip Rings are employed in satellite tracking systems, allowing for the transmission of power and signals to rotating antennas and tracking mechanisms.

Specifications:

Drawing for HT1256-P1805-S08-G01:

FAQ:

What is the maximum current rating for each circuit?

Each circuit of these slip rings has a maximum current rating of 5A, allowing for the transmission of moderate power loads.

Can the slip rings transmit both power and signals?

Yes, these slip rings are designed to transmit both power and signals. The 18 circuits can be utilized for a combination of power transmission and signal transfer, with 8 circuits dedicated to signal transmission.

What is the purpose of the shielded circuits?

The shielded circuits provide protection against electromagnetic interference (EMI) to ensure the integrity of sensitive signals, minimizing the risk of signal degradation or loss.