Product Overview: LTC4371IMS#PBF
The LTC4371IMS#PBF is a robust negative voltage diode-OR controller from Linear Technology, designed to seamlessly regulate power from multiple negative voltage sources. This sophisticated component is tailored for systems that require a reliable, continuous power supply, even in the event of a failure or disconnection of one of the power sources.
Key Features
- Diode-OR Control: The LTC4371 facilitates diode-ORing of two negative voltage power sources, ensuring that the highest priority source is used without the need for power diodes, thus reducing power loss and heat dissipation.
- Wide Operating Voltage Range: With a broad operating voltage range of -2.9V to -72V, this device is versatile and suitable for a variety of negative voltage applications.
- Current Monitoring: It includes a current monitor output that provides an analog voltage output proportional to the current flowing through the external N-channel MOSFETs, allowing for precise power management.
- Reverse Input Protection: The LTC4371IMS#PBF is equipped with robust reverse input protection to safeguard against reverse voltages, ensuring system reliability and longevity.
- Low Quiescent Current: A low quiescent current draw ensures minimal power consumption when the device is in operation, making it an energy-efficient choice.
Applications
Thanks to its negative voltage handling and efficient power routing capabilities, the LTC4371IMS#PBF is ideal for a range of applications, including:
- Redundant Power Supplies
- Industrial Control Systems
- Telecommunications Equipment
- Data Center Power Management
- High Availability Systems
Product Specifications
| Parameter |
Value |
| Part Number |
LTC4371IMS#PBF |
| Manufacturer |
Linear Technology |
| Operating Voltage Range |
-2.9V to -72V |
| Quiescent Current |
Low |
| Package |
MSOP-10 |
With its advanced features and reliable performance, the LTC4371IMS#PBF from Linear Technology stands out as an excellent choice for managing power in systems that cannot afford downtime due to power source failure.