NSM2013-50B5F-DSWR

Current Sensors Overview

The NSM2013-50B5F-DSWR is a Hall effect current sensor manufactured by NOVOSENSE. It features a single channel for bidirectional current sensing with a maximum rating of 50A. The device utilizes a 16-SOIC package, specifically SOW-16 (0.295 inch or 7.50mm width). It integrates signal processing capabilities within a compact surface-mount form factor designed for industrial and power applications requiring accurate current monitoring.

Current Sensors Feature Summary

• Integrates Hall effect sensing technology for precise current measurement
• Supports bidirectional current detection capability
• Features integrated signal processing for direct output
• Utilizes a compact 16-pin SOIC surface-mount package

Current Sensors Applications

• Industrial motor drive systems
• Power supply current monitoring
• Inverter and converter control circuits
• Battery management systems

Current Sensors Procurement Notes

Verify the exact suffix and package variant against the manufacturer's latest datasheet to ensure compatibility with specific board layouts. Confirm that the 50A rating aligns with the thermal and electrical requirements of the target application environment before finalizing procurement orders.

Current Sensors Selection Notes

Select this component when a compact, integrated solution for bidirectional current sensing is required. Ensure the system design accommodates the 16-SOIC footprint and validates that the 50A limit meets peak load demands without exceeding thermal constraints defined in the official specifications.

Current Sensors Part Context

This part belongs to the NSM2013 series of current sensors from NOVOSENSE. It is distinct from the company's digital isolators and RS-485 transceivers, serving specifically as a sensing element for high-current applications rather than communication or isolation interfaces.

Current Sensors Replacement Considerations

Consult the official NOVOSENSE replacement guide for verified substitutes. Cross-reference pinouts and sensitivity parameters with alternative Hall effect sensors if sourcing constraints exist.