The NXP BYQ28X series is a family of ultra-fast, dual rectifier diodes designed to meet the stringent requirements of high efficiency power conversion and switching applications. These diodes are engineered for use in power supplies, inverters, converters, and as freewheeling diodes in a variety of electronic circuits.
Key Features
- High Forward Surge Capability: The BYQ28X series is capable of handling high surge currents, making it suitable for applications that experience momentary overloads.
- Low Forward Voltage Drop: These diodes feature a low forward voltage drop, which reduces power loss and improves efficiency in power conversion circuits.
- Ultra-Fast Reverse Recovery Time: With an ultra-fast recovery time, the BYQ28X series minimizes energy loss during the switching process, which is crucial for high-frequency operations.
- Dual Diode Configuration: The series offers a common cathode configuration, which simplifies PCB layout and reduces the number of components required in parallel or bridge circuits.
- High Thermal Stability: Built to withstand high operating temperatures, these diodes maintain performance and reliability even under thermal stress.
- Robust Package: The BYQ28X diodes are available in a robust SMD package, which provides excellent mechanical durability and compatibility with automatic pick-and-place equipment.
Applications
The NXP BYQ28X series is versatile and can be used in a wide range of applications, including:
- Switch-mode power supplies (SMPS)
- Power factor correction (PFC) circuits
- DC-to-DC converters
- Automotive systems
- Lighting applications
- Telecommunication systems
Technical Specifications
| Parameter |
Value |
| Reverse Voltage |
Up to 200 V |
| Average Forward Current |
10 A |
| Non-Repetitive Peak Forward Surge Current |
60 A |
| Reverse Recovery Time |
Typically 30 ns |
| Operating Junction Temperature |
-65°C to +175°C |
With its combination of speed, efficiency, and robustness, the NXP BYQ28X series stands as an exemplary choice for designers looking to enhance the performance and reliability of their power management systems.