Manufacturer Part Number
UC28025DWR
Manufacturer
Texas Instruments
Introduction
The UC28025DWR is a versatile power management integrated circuit from Texas Instruments, designed for DC-DC switching controllers. It is used in applications requiring step-up, step-up/step-down voltage conversion and is capable of driving multiple converter topologies.
Product Features and Performance
Dual output transistor driver
Supports multiple topologies including Boost, Flyback, Forward Converter, Full-Bridge, Half-Bridge, and Push-Pull
Supply voltage range from 9V to 30V
Switching frequency between 340kHz and 460kHz
Maximum duty cycle of 45%
Synchronous rectification for improved efficiency
Features current limit, enable, frequency control, ramp, and soft start control options
Product Advantages
High flexibility in topology configuration
Efficient power conversion with synchronous rectification
Enhanced control features for tailored performance
Robust operating temperature range from -40°C to 105°C
Key Technical Parameters
Number of Outputs: 2
Output Phases: 2
Voltage - Supply (Vcc/Vdd): 9V ~ 30V
Frequency - Switching: 340kHz ~ 460kHz
Duty Cycle (Max): 45%
Quality and Safety Features
Operates reliably in a wide temperature range from -40°C to 105°C
Surface mount technology for secure and durable mounting
Compatibility
Compatible with a broad range of topologies including boost and flyback
Application Areas
Suitable for use in power supply modules, battery management systems, and energy harvesting applications
Product Lifecycle
The product status is active and there are no indications of nearing discontinuation. Replacements and upgrades are available within the same Texas Instruments series.
Several Key Reasons to Choose This Product
Highly versatile with support for multiple converter topologies
Capable of managing dual output stages
Broad voltage operation range suitable for varied electronic applications
Embedded control features enabling precise power management
Proven performance in extreme temperature environments offering reliability in harsh conditions