76601/2C

Overview

The Murata Power Solutions 76601/2C is a through-hole pulse transformer designed for PCB mounting. It features a 1:1 turns ratio and an inductance of 492 µH. The component supports an ET constant of 8.5 Vµs and offers an isolation voltage of 500 V with a DC resistance of 0.8 ohms. It operates within a temperature range of 0°C to +70°C and measures 12.7 mm in length, 8.89 mm in width, and 5.84 mm in height.

Feature Summary

• Provides galvanic isolation with a 1:1 turns ratio for signal transmission
• Engineered for high reliability in through-hole PCB applications
• Complies with RoHS environmental standards

Applications

• Pulse transformer circuits requiring 1:1 isolation
• Industrial control systems utilizing through-hole mounting
• Signal coupling in electronic equipment operating within specified thermal limits

Procurement Notes

This component is designated as End of Life (EOL) by the manufacturer. Availability is restricted, and sourcing may require checking secondary distributors or existing stock. Verify current lifecycle status and lead times with suppliers before procurement planning. Consider alternative components if long-term supply stability is required.

Selection Notes

Select this part for applications requiring a 1:1 isolated pulse transformer with specific electrical parameters including 492 µH inductance and 500 V isolation. Ensure the design accommodates through-hole installation and the physical dimensions of 12.7 x 8.89 x 5.84 mm. Confirm compatibility with the 0°C to +70°C operating temperature range.

Part Context

The 76601/2C belongs to the 766 series of pulse transformers from Murata Power Solutions. This series includes various configurations optimized for different inductance and ET constant requirements. The component is part of a broader portfolio of power magnetics solutions designed for robust performance in demanding electronic environments.

Replacement Considerations

Public confirmed substitute part numbers are not available in the provided documentation. Due to the End of Life status, engineers should evaluate functional equivalents with matching electrical specifications and mechanical footprint constraints.