NXP BZX84-LC15 - Voltage Regulator Diode
The NXP BZX84-LC15 is a low-power voltage regulator Zener diode designed to provide a precise voltage reference. This product is part of NXP's series of surface-mounted Zener diodes that offer a range of voltages and are intended for a wide variety of applications. The BZX84-LC15, with a nominal Zener voltage of 15V, is suitable for use in stabilization and clipping circuits with high power rating.
The diode comes in a small SOT23 package, which is ideal for automated assembly processes and applications where space is at a premium. Despite its compact size, it provides excellent thermal performance and power dissipation, making it a reliable choice for high-density circuit designs.
Key features of the BZX84-LC15 include a tight voltage tolerance, ensuring precise voltage regulation. It also has a low dynamic impedance and a fast switching speed, which makes it suitable for transient suppression and regulation tasks in high-speed circuits. Moreover, the diode's silicon epitaxial planar construction ensures high reliability and stability over time.
Applications for the BZX84-LC15 are diverse and include consumer electronics, telecommunications, and industrial control systems. It can be used in power management circuits, voltage reference designs, and protection circuits to guard against overvoltage conditions.
As part of NXP's commitment to environmental sustainability, the BZX84-LC15 is compliant with RoHS (Restriction of Hazardous Substances) directives, which means it is free from lead and other harmful materials commonly used in electronic components.
Technical specifications for the BZX84-LC15 include a continuous reverse voltage of 15V, a peak pulse power dissipation of 250mW, and an operating temperature range from -55°C to +150°C, making it a robust component for challenging environments.
For engineers and designers looking for a reliable voltage regulation solution, the NXP BZX84-LC15 Zener diode is an excellent choice that combines performance, precision, and compact design.