The AP432ASAG-7 is a precision voltage reference component engineered by Diodes Incorporated, a leading manufacturer and supplier of high-quality semiconductor products. This device is designed to offer a stable and precise reference voltage, which is crucial for various electronic applications, particularly in analog circuits where voltage stability is paramount.

This voltage reference is based on the bandgap concept, which ensures a low temperature coefficient and a long-term voltage stability. The AP432ASAG-7 offers a default 2.5V output, which can be adjusted over a wide range from 1.24V to 18V when used with external resistors. This flexibility makes it suitable for many applications, including precision power supplies, battery-operated equipment, and analog-to-digital converters.

The AP432ASAG-7 comes in a compact SOT-23 package, which is ideal for space-constrained applications. Despite its small size, it does not compromise on performance, offering excellent thermal stability and a low dynamic output impedance. These features enhance the overall reliability and performance of the final product in which it is used.

Some of the key specifications of the AP432ASAG-7 include:

• Output Voltage: 2.5V (Adjustable with external resistors)
• Voltage Tolerance: ±0.5% at 25°C
• Temperature Coefficient: typically 50ppm/°C
• Low Dynamic Output Impedance: 0.2Ω typical
• Operating Current: 50µA to 20mA
• Extended Operating Temperature Range: -40°C to +85°C
• Package: SOT-23

With its precision performance and robust design, the AP432ASAG-7 is highly suitable for applications requiring a stable reference voltage under varying environmental conditions. Its low power consumption and wide operating current range make it an excellent choice for portable and battery-powered devices.

Diodes Incorporated's commitment to quality ensures that the AP432ASAG-7 voltage reference meets the stringent requirements of the electronics industry, making it a reliable choice for designers and engineers looking to enhance the accuracy and stability of their electronic systems.