LTC4412ES6#TRMPBF - Low Loss PowerPath Controller
The LTC4412ES6#TRMPBF from Linear Technology is a sophisticated PowerPath controller designed to manage power between two sources. It ensures seamless transitions between primary and auxiliary power sources, making it an essential component for systems that require a reliable power supply without interruption.
Key Features:
- Low On-Resistance: This device features an internal low on-resistance (RON) MOSFET, ensuring minimal voltage drop and power loss during operation.
- Automatic Switching: The LTC4412 controls an external P-channel MOSFET to create a near-ideal diode function for power switch-over. This automatic switching between power sources occurs without the need for microcontroller intervention.
- Wide Operating Voltage Range: It operates over a wide voltage range from 2.5V to 28V, accommodating a broad spectrum of applications and power systems.
- Low Quiescent Current: The device's quiescent current is a mere 11µA, which is ideal for battery-powered applications where power efficiency is critical.
- Reverse Battery Protection: The LTC4412 provides reverse battery protection, safeguarding your system against potential damage caused by battery installation errors.
- Compact Package: Housed in a small SOT-23 package, the LTC4412 is suitable for space-constrained applications.
Applications:
The LTC4412ES6#TRMPBF is versatile and can be used in a variety of applications, including:
- Redundant Power Supplies
- Portable/Battery-Powered Equipment
- Automotive and Industrial Systems
- Or-ing Diode Replacement
Product Quality and Reliability:
Linear Technology ensures that the LTC4412ES6#TRMPBF is manufactured to the highest standards, with rigorous testing for performance and reliability. This PowerPath controller is designed for long-term operation in diverse environments, making it a trusted choice for critical applications.
With its advanced features and robust design, the LTC4412ES6#TRMPBF from Linear Technology stands out as an efficient solution for managing power in complex electronic systems.