CMR309T48.000MABJTR

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Crystals are electrical components used to store and process data and are a key component to an electronic device’s operation. The CMR309T48.000MABJTR crystal is one of many such components and is versatile, making it applicable to a variety of applications and also efficient and reliable.

The CMR309T48.000MABJTR crystal is a low-power, ultra-small crystal with a frequency of 48MHz. It is a full-tension, first-plate-grade device and is equivalent to the AT-cut crystal. It is suitable for a variety of applications, especially those requiring a long-term stability and high reliability. It is most often used in applications including ultra-small digital circuits, oscillator circuits, MCUs, and RF transceivers.

Furthermore, the CMR309T48.000MABJTR crystal is equipped with a low ESR capacitance value and low total harmonic distortion, making it ideal for high-precision, low-noise applications. Moreover, this crystal provides excellent jitter performance, high frequency stability and operational temperature range from -55℃ to 125℃.

The CMR309T48.000MABJTR crystal utilizes the piezoelectric effect to function. The piezoelectric effect occurs when certain materials, such as quartz, are exposed to an electric field or force. When the electric field is present, the quartz vibrates and produces a mechanical wave, which is translated into an electrical wave by the crystal. This electrical wave is then used to keep the system in time. The crystal is able to maintain this precision timing by using a quartz resonator, which is a circuit element chosen to match the quartz crystal’s resonant frequency. This frequency is determined based on the dimensions of the crystal and the material the crystal is made of.

In conclusion, the CMR309T48.000MABJTR crystal is an industrial-grade low-power crystal that can be used in a wide variety of applications. It provides stability, reliability, and precision timing, making it an ideal choice for any electronic circuit requiring a crystal. Its working principle is based on the piezoelectric effect, which is used to produce a mechanical wave that is then translated into an electrical wave. This electrical wave is then used to keep the circuit in time.

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