9C16000196

Crystals are one of the most essential components of modern technology. These tiny particles are beneficial for a wide range of applications and provide amazing benefits such as high frequency response, fast and stable timing and frequency control, improved safety and security, etc. The most common crystal used in many applications is the 9C16000196 (new crystal). In this article, we will discuss the application field and working principle of 9C16000196 crystal.

Application Field

The 9C16000196 crystal is an ideal choice for many different kinds of applications. It is best suited for digital interconnections, radio communication, and power electronics. The crystal’s wide dynamic range allows it to be used in a variety of different system architectures. Additionally, it is often used in applications that require high-precision timekeeping such as time and frequency control, synchronization, and positioning systems. Furthermore, the crystal’s superior performance in accuracy and stability makes it a prime choice for measurement, control, and data acquisition systems, in addition to precision clock generation.

Working Principle

The 9C16000196 crystal operates according to a simple yet effective principle: changing voltage excites the crystal to oscillate at a certain frequency and the frequency is determined by its physical dimensions. When the voltage changes, the crystal’s frequency is right shifted or left shifted depending on the change in voltage. The physical dimensions of the crystal determine the frequency of oscillation and the degree of stability.

To understand the operation of the 9C16000196 crystal one must understand the concept of resonant frequency. Resonant frequency is a frequency at which the crystal oscillates at its maximum. This frequency is determined by the crystal’s physical dimensions, along with load capacitance and load inductance. When the crystal is connected to a supply of electricity, the electrical field created in the crystal causes it to oscillate at the resonant frequency.

Once the crystal oscillates at the resonant frequency, it is said to be “tuned” to the supply of electricity providing it with stability. The stability of the crystal’s frequency is determined by the crystal’s ability to remain in a tuned state regardless of the influence of external factors such as temperature and other electrical fields. It is this stability that makes the 9C16000196 crystal an ideal choice for many applications that require precision timekeeping.

Conclusion

The 9C16000196 crystal is an outstanding choice for a variety of applications due to its superior performance in accuracy and stability. Its wide dynamic range allows it to be used in different system architectures and it is ideal for radio communication and digital interconnections. Furthermore, its ability to remain in a tuned state despite external factors makes it an ideal choice for precision timekeeping. All these factors make the 9C16000196 crystal an essential component for the modern technology.