TA-49.152MDE-T

Oscillators are circuits that produce periodic electronic signals with or without external power source. TA-49.152MDE-T oscillators belong to this category as they offer low power consumption, low noise and superior frequency stability depending on the application.

The TA-49.152MDE-T oscillator is a ceramic surface mount device based on a small quartz crystal element. It operates with a frequency up to 48MHz and a supply voltage up to 3.3 V. Temperature Compensation Technology (TCT) is used to ensure a very accurate and stable frequency. The oscillator has a one-way frequency stability of ±2ppm (parts per million).

These oscillators are suitable for a variety of applications, such as studio equipment, microcontrollers, embedded systems, consumer electronic devices, test and measurement equipment, and medical instruments. They are also suitable for communications, and automotive and aerospace applications.

The TA-49.152MDE-T oscillator has a working principle similar to other quartz crystal oscillators. It works by using a piezoelectric effect, where a crystal vibrates when a voltage is applied to it. The crystal has resonant characteristics, so when the input voltage is applied to the crystal, it vibrates at its resonant frequency. This creates an oscillating signal that is then passed through the oscillator’s circuitry and is transformed into a usable electrical signal.

The TA-49.152MDE-T oscillator has several features that make it suitable for many applications. It has low power consumption and low noise, making it suitable for battery-operated applications, and its one-way frequency stability of ±2ppm allows for accurate timing. Additionally, its small size and thin profile make it suitable for space-constrained and compact applications.

In summary, the TA-49.152MDE-T oscillator is a surface mount device with a frequency range up to 48MHz, a supply voltage up to 3.3 V, and a one-way frequency stability of ±2ppm. It is suitable for a variety of applications, such as studio equipment, microcontrollers, consumer electronic devices, test and measurement equipment, and medical instruments, as well as communications and automotive and aerospace applications. Its low power consumption, low noise, and small size make it suitable for space-constrained and compact applications. Its working principle is based on a piezoelectric effect, where a crystal vibrates when a voltage is applied to it, producing an oscillating signal.