ON Semiconductor NSM4002MR6T1G Overview

The NSM4002MR6T1G is a high-performance, dual Schottky barrier diode designed and manufactured by ON Semiconductor. This device is optimized for low forward voltage drop and high current handling capabilities, making it an excellent choice for a wide range of applications, including power management, voltage clamping, and signal rectification.

Key Features

• Low Forward Voltage: The NSM4002MR6T1G boasts a low forward voltage drop, which enhances system efficiency by minimizing power losses during diode conduction.
• High Current Capability: With its ability to handle high currents, this diode is suitable for applications requiring robust current flow without significant heating or voltage loss.
• Small Package Size: Encased in a compact SOT-23 package, the NSM4002MR6T1G is ideal for space-constrained applications without compromising performance.
• Low Leakage Current: The device exhibits low leakage current characteristics, ensuring minimal power loss when the diode is in the off state.
• Lead-Free and RoHS Compliant: The NSM4002MR6T1G is designed with environmental considerations in mind, complying with RoHS standards and using lead-free materials.

Applications

The versatility of the NSM4002MR6T1G allows it to be utilized in various electronic circuits and systems. Some of the typical applications include:

• DC-DC Converters
• Power Supply Design
• Reverse Voltage Protection
• Automotive Applications
• Portable Devices
• Telecommunication Circuits

Product Specifications

The NSM4002MR6T1G is characterized by its robust electrical properties, which include:

• Package: SOT-23
• Configuration: Dual Common Cathode
• Peak Repetitive Reverse Voltage (V<sub>RRM): 40V
• Maximum Forward Continuous Current (I<sub>F): 200mA
• Maximum Forward Surge Current (I<sub>FSM): 600mA
• Operating Temperature Range: -55°C to +125°C

With its superior efficiency, reliability, and compact form factor, the NSM4002MR6T1G from ON Semiconductor is a strategic choice for engineers and designers looking to enhance their electronic designs.