Pololu CT433-HSWF50DR TMR Current Sensor Large Carrier 0A to 50A, 3.3V

Description Pololu CT433-HSWF50DR TMR Current Sensor Large Carrier 0A to 50A, 3.3V Offers 1 MHz bandwidth for high-speed applications Features low 1 mΩ current path resistance Provides 40 mV/A sensitivity with 0.65 V zero point Operates from -40°C to 125°C Ideal for high dV/dt and electrically isolated applications The Pololu CT433-HSWF50DR TMR Current Sensor Large Carrier 0A to 50A, 3.3V is a high-precision, electrically isolated current sensor designed for high dV/dt applications. Utilizing Allegro’s XtremeSense™ TMR technology, it offers a 1 MHz bandwidth with low noise and a typical response time of 300 ns. The sensor provides an analog output voltage proportional to AC or DC currents, with a zero point at 0.65 V and a sensitivity of 40 mV per amp. It is optimized for unidirectional input currents from 0 A to 50 A and operates within a temperature range of -40°C to 125°C. The sensor's design minimizes power loss with a 1 mΩ primary current path resistance and a 6-layer PCB construction. It features an optional overcurrent fault output and is not ratiometric, ensuring immunity from noisy supplies. The sensor can be integrated into various applications requiring electrical isolation and is compatible with standard solderless breadboards. Note: This product is intended for use below 30 V. Exceeding temperature or current limits can cause permanent damage to the sensor. Handle with care to avoid burns. View more What's Included 1x Pololu CT433-HSWF50DR TMR Current Sensor Large Carrier 0A to 50A, 3.3V Dimensions 1.2 x 1.4 inches Links PDF File Pololu CT433-HSWF50DR TMR Current Sensor Large Carrier 0A to 50A, 3.3V - Datasheet Specifications Unidirectional current range: 0 to 50 A Supply voltage: 3.0 V to 3.6 V Sensitivity: 40 mV/A Zero point: 0.65 V Six PCB layers High-bandwidth 1 MHz analog output Typical response time: 300 ns Output is not ratiometric Optional overcurrent fault output Operating temperature range: -40°C to 125°C Primary current path resistance: 1 mΩ TMR sensing rejects common-mode fields Optimized for high dV/dt applications