ABM10AIG-25.000MHZ-J4Z-T3

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Crystals are extremely important components in electronic devices. They are used to generate electrical signals at precise, stable frequencies. The ABM10AIG-25.000MHZ-J4Z-T3 crystal is a miniature quartz crystal with a frequency of 25MHz. It is an economical and reliable solution for many timing applications.

The frequency of an ABM10AIG-25.000MHZ-J4Z-T3 crystal is determined by the dimensions of its quartz crystalline structure. The space in between the atomic lattices of the quartz crystal forms a discrete set of cavity resonance frequencies. When an electric field is applied to the quartz crystal, the electric dipoles within the crystal oscillate at its natural resonant frequency, which is set by the physical dimensions of the crystal.

The ABM10AIG-25.000MHZ-J4Z-T3 is a three-pin surface-mount crystal and can be used in a wide range of timing applications, including computer systems, telecommunications, aerospace and portable device design. Its small size and low frequency make the ABM10AIG-25.000MHZ-J4Z-T3 a preferred solution for space-constrained design environments. The crystal offers a tight tolerance and high ultimate frequency stability, which is ideal for accurate timing control in any system.

The working principle of the ABM10AIG-25.000MHZ-J4Z-T3 crystal is based on the piezoelectric effect. Piezoelectric materials contain tiny electric dipoles that respond to an applied voltage by vibrating at the crystal’s natural frequency. An oscillator circuit can be built around the crystal to convert the electrical signal into a high-frequency output. This output signal is then used to generate precise, stable clock signals that are suitable for timing applications in electronic systems.

The ABM10AIG-25.000MHZ-J4Z-T3 crystal is an economical and reliable solution for many timing applications. Its high frequency stability and tight tolerance, combined with its small size and low frequency, make it an excellent choice for space-constrained designs. The working principle behind the crystal is based on the piezoelectric effect, where an applied voltage causes tiny electric dipoles within the crystal to vibrate at its natural frequency. This output signal is then used to generate precise, stable clock signals that are suitable for timing applications in electronic systems.

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