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LTC4444IMS8E
+NomenclatureGate Drivers LTC4444 - High Voltage Synchronous N-Channel MOSFET Driver
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FabricantÉquipement de simulation
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Pièce fabricant #LTC4444IMS8E
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Fiche technique LTC4444IMS8E DataSheet
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En stock6960
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Spécifications
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Présentation
Description
Key features of the LTC4444IMS8E include a fast switching capability with a rise and fall time of typically 8ns, ensuring efficient operation in power conversion circuits. It supports a wide input logic voltage range and has separate high and low-side control inputs to allow independent control of the MOSFETs.
The device is offered in an 8-pin MSOP package, and its robust design includes protections like undervoltage lockout to ensure reliable operation. It is ideal for applications in telecom, automotive, and industrial power supplies, where efficient, high-voltage control is crucial. Its compact design makes it suitable for space-constrained applications.
Equivalent
1. IR2110/IR2113 by Infineon Technologies: These are high-voltage, high-speed power MOSFET and IGBT drivers.
2. UCC27714 by Texas Instruments: A high-side, low-side driver for driving MOSFETs and IGBTs.
3. FAN7390 by ON Semiconductor: A high and low-side gate driver with similar functionalities.
Always verify compatibility with your specific requirements before substituting.
Features
Pinout
Here's a brief overview of its pin configuration and functions:
1. VCC: Supply voltage pin.
2. IN: Input signal for controlling the driver.
3. GND: Ground reference for the driver.
4. VREG: Regulator output, typically used for internal biasing.
5. BST: Bootstrap pin used to generate the high-side gate drive voltage.
6. TG: High-side gate drive output for the top MOSFET.
7. SW: Switch node connection, referenced to the source of the top MOSFET.
8. BG: Low-side gate drive output for the bottom MOSFET.
The LTC4444IMS8E is typically used to efficiently switch large currents through MOSFETs, providing fast rise and fall times to minimize switching losses.
Manufacturer
Application
1. DC-DC Converters: Used in power supplies for efficient voltage regulation.
2. Motor Drives: Drives high-power motors by switching power MOSFETs.
3. Power Factor Correction (PFC): Enhances power quality in AC to DC conversion.
4. Class D Amplifiers: Used in audio applications for efficient amplification.
5. Solar Inverters: Converts DC from solar panels to AC for grid integration.
6. Uninterruptible Power Supplies (UPS): Ensures continuous power delivery.
These applications benefit from its fast switching, high voltage capability, and efficiency.