Manufacturer Part Number
MIC4605-1YMT-TR
Manufacturer
Microchip Technology
Introduction
MIC4605-1YMT-TR is a high-performance half-bridge gate driver, designed specifically for Power Management applications, offering precise control and efficient operation of N-Channel MOSFET gates.
Product Features and Performance
Independent half-bridge driver configuration
Supports two N-channel MOSFET gates
Peak output current of 1A (source and sink)
Integrated TTL, non-inverting input logic
Fast rise and fall times of 20ns each for quick switching
High bootstrap voltage capacity up to 108V
Wide operating temperature range from -40°C to 125°C
Product Advantages
Enhanced power efficiency and reliability
High voltage capacity suitable for various high voltage applications
Robust thermal performance ensures stability across diverse operating conditions
Compact 10-UFDFN exposed pad package supports space-sensitive applications
Key Technical Parameters
Voltage Supply: 5.5V ~ 16V
Logic Voltage VIL, VIH: 0.8V, 2.2V
Current Peak Output (Source, Sink): 1A, 1A
High Side Voltage Max (Bootstrap): 108 V
Rise / Fall Time (Typ): 20ns, 20ns
Operating Temperature: -40°C ~ 125°C (TJ)
Quality and Safety Features
Stringent quality testing for consistent performance
Built-in safety features to prevent overcurrent and overheating
Compatibility
Compatible with a wide range of N-channel MOSFETs
Suitable for TTL and non-inverting input types
Application Areas
Motor drivers
Power supply regulation
High voltage switching applications
Product Lifecycle
Currently active product status
Not known to be nearing discontinuation
Replacement and upgrade options available as technology advances
Several Key Reasons to Choose This Product
High-speed switching capabilities enhance overall efficiency
The ability to handle high voltages expands usability in numerous applications
Tight rise and fall times provide precise control over power transitions
Robust temperature tolerance ensures reliable performance under extreme conditions
Small and efficient packaging is optimal for compact circuit designs