Gate Drivers
Results:
6,979
Manufacturer
Series
Supplier Device Package
Rise / Fall Time (Typ)
Voltage - Supply
Package / Case
Current - Peak Output (Source, Sink)
Logic Voltage - VIL, VIH
High Side Voltage - Max (Bootstrap)
Operating Temperature
Gate Type
Input Type
Driven Configuration
Voltage - Load
Current - Peak Output
Number of Drivers
Technology
Channel Type
Mounting Type
Output Configuration
Voltage - Output Supply
Applications
Pulse Width Distortion (Max)
Approval Agency
Qualification
Common Mode Transient Immunity (Min)
Propagation Delay tpLH / tpHL (Max)
Interface
Load Type
Current - Output (Max)
Number of Channels
Voltage - Isolation
Grade
Current - Output / Channel
Current - Output High, Low
Features
Rds On (Typ)
Type
Fault Protection
Output Type
Voltage - Supply (Vcc/Vdd)
Switch Type
Ratio - Input:Output
Number of Outputs
Number of Circuits
Current - DC Forward (If) (Max)
Program Memory Type
Input
Step Resolution
Number of Inputs
Number of Elements
Voltage - Forward (Vf) (Typ)
Max Propagation Delay @ V, Max CL
Delay Time - ON
Logic Type
Current - Supply
Motor Type - Stepper
Input Logic Level - High
Controller Series
Frequency - Max
Core Processor
FET Type
Current - Output
Sensing Method
Internal Switch(s)
PLL
Function
Accuracy
Output
Current - Quiescent (Max)
Delay Time - OFF
Voltage - Input
Motor Type - AC, DC
Number of Bits per Element
RAM Size
Number of I/O
Differential - Input:Output
Input Logic Level - Low
Divider/Multiplier
Results remaining：6,979
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About Gate Drivers
Gate Drivers are a combination of electronic components that work together to facilitate power management and control in various applications. Specifically, gate drivers are a type of IC that provide the necessary functions to interface control signals from a control device to semiconductor devices like FETs (Field-Effect Transistors) or IGBTs (Insulated Gate Bipolar Transistors) in power conversion applications.
The primary purpose of gate drivers is to enable the control and switching of power flow through these semiconductor devices. They achieve this by providing functions such as isolation, amplification, reference shifting, bootstrapping, and other essential operations that ensure seamless signal transmission between the control device and the semiconductor devices.
Isolation is crucial to prevent any interference or feedback between the control circuitry and the power circuitry, ensuring safety and stability in the system. Amplification allows the control signals to reach the necessary voltage or current levels required to drive the semiconductor devices effectively. Reference shifting ensures that the control signals align with the specific voltage levels of the semiconductor devices. Bootstrapping helps to enhance the efficiency of the gate drivers by utilizing energy from the power supply to boost the gate drive voltage.
By providing these functionalities, gate driver PMICs enable precise control over power flow and efficient switching of semiconductor devices, resulting in optimized performance and reliability of power conversion systems. They are commonly used in motor control applications, renewable energy systems, power supplies, and other power electronics applications where efficient power management is essential.
Overall, Integrated Circuits - Power Management - Gate Drivers form a critical part of power conversion systems, enabling effective communication and control between the control device and the semiconductor devices. They contribute to enhanced efficiency, reliability, and performance in various power management applications.
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