TEA1752LT/N1/S1518

AC DC Converters, Offline Switches NXP Semiconductors TEA1752LT/N1/S1518 Overview

The TEA1752LT/N1/S1518 by NXP Semiconductors is a pivotal component in the realm of AC DC converters and offline switches, offering advanced integration for flyback topology designs. Engineered to enhance efficiency and reliability, this IC is specifically designed to address the demanding needs of modern power supply applications. Its robust design facilitates lower system cost while achieving higher energy efficiency, making it a standout choice for developers aiming to meet stringent energy standards without compromising performance. The incorporation of this IC into power supply units exemplifies NXP's commitment to delivering high-quality and sustainable solutions.

TEA1752LT/N1/S1518 Features

This integrated circuit boasts a range of features that streamline its implementation and enhance its performance in a variety of applications. Key features include high levels of integration which reduce external component count, thereby minimizing the footprint and simplifying the overall design. It supports green-mode operation, thus significantly reducing power consumption under light load conditions. Additionally, the IC offers various protection features such as overvoltage, overtemperature, and short-circuit protection, ensuring robust performance and longevity of the end products.

TEA1752LT/N1/S1518 Applications

• Consumer Electronics: Used in televisions and gaming consoles to ensure efficient power conversion and reliability, enhancing device longevity and energy conservation.
• Office Equipment: Powers printers and photocopiers effectively, maintaining optimal performance even under varying load conditions.
• Industrial Systems: Integral in the power supply units of factory automation equipment, providing stable and efficient power management crucial for sustained industrial operation.
• Telecommunication Infrastructure: Applied in communication systems to maintain efficient energy use and protect against power variability, crucial for uninterrupted service delivery.