ABM10W-38.8800MHZ-7-J1Z-T3

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Crystals have been a vital component of electronics since their development in the 20th century and have been used in countless applications ranging from clocks and computers to modern communication systems. This article will focus on the application field and working principle of the specific crystal specifier, the ABM10W-38.8800MHZ-7-J1Z-T3, focusing on its range of applications and its method of operation.

What is a Crystal Specifier?

A crystal specifier is a unique designation used to communicate the frequency, temperature, size and shape of an electronic component such as a quartz crystal. The ABM10W-38.8800MHZ-7-J1Z-T3 is made up of the following parts; \'ABM10W\', which specifies the size, or footprint, of the component, \'38.8800MHZ\', which specifies the frequency that the component resonates at, \'7\', which specifies the temperature exponent of the component, \'J1Z\', which identifies the shape of the component and \'T3\', which identifies the packaging.

Application Field

The ABM10W-38.8800MHZ-7-J1Z-T3 crystal specifier has a wide variety of potential applications and is used in high-frequency communication systems, atomic timekeeping systems, global positioning systems (GPS) and even some computing systems. As it has an exceptionally high frequency, it is particularly well-suited to high-performance applications such as satellite communication. It is also used in oscillators that require large operating temperatures, as the \'7\' temperature exponent indicates.

Working Principle

Crystals operate on a phenomenon known as the piezoelectric effect, which is when a material generates an electrical current when mechanically stressed. Quartz crystals are among the most common materials to demonstrate this effect, and when the crystal is placed in a circuit it can oscillate at its natural frequency due to this effect. This oscillation frequency is determined by the size of the crystal and the temperature exponent of the crystal.

The ABM10W-38.8800MHZ-7-J1Z-T3 is a perfect example of this oscillation frequency in action; the 38.8800MHZ designation indicates the frequency of the electronic oscillation, while the 7 temperature exponent indicates that the crystal is capable of operating at large temperatures. The J1Z shape of the crystal ensures that the oscillation is even and consistent and the large size of the crystal ensures that it can handle high-frequency applications with ease.

Conclusion

The ABM10W-38.8800MHZ-7-J1Z-T3 is a sophisticated crystal specifier with a wide range of potential applications. Its high frequency and temperature exponent make it ideal for high-performance applications such as satellite communication, while its large size and shape ensure it can handle high-frequency signals with minimal distortion. The working principle of the crystal is based on the piezoelectric effect and its oscillation frequency is determined by the size of the crystal and the temperature exponent of the crystal. This article has provided an overview of the application field and working principle of the ABM10W-38.8800MHZ-7-J1Z-T3 crystal, which is an essential component of many modern electronics systems.

The specific data is subject to PDF, and the above content is for reference