SIT1602BC-83-25S-26.000000X

Overview

SIT1602BC-83-25S-26.000000X is an oscillator from the family of crystal oscillators designed to convert electrical energy into vibrational energy. With its small size, this oscillator is perfect for applications where space is an issue, such as wireless and mobile devices, or portable electronics. The frequency stability that this oscillator provides makes it ideal for a variety of applications, including clock signals, logic circuits, microprocessors, and more. This article gives an overview of the SIT1602BC-83-25S-26.000000X’s application field and working principle.

Application Field

The SIT1602BC-83-25S-26.000000X oscillator is primarily used in clock signals and logic circuits, such as microprocessors, memory modules, ASICs, DSPs, and FPGAs. Its small size allows it to fit into tight, space-constrained designs, making it suitable for use in mobile and wireless devices. This oscillator’s frequency stability makes it ideal for use in micro-accuracy and microsecond timing systems. Moreover, its output is very clean, so it can be used in analog audio applications. This oscillator is also impressively power efficient and can be used in low-power applications such as wearables.

Working Principle

The SIT1602BC-83-25S-26.000000X oscillator works by using a crystal resonator to convert electrical energy into vibrational energy. The crystal resonator consists of two plates of quartz crystal, which are mechanically bonded and physically held in an oscillator circuit. The plates vibrate at a fixed frequency and generate a periodic output signal as an electrical current. This signal is then amplified by a set of transistors to create the desired output frequency. The oscillator circuit also includes a buffer amplifier, which helps to improve the accuracy of the output frequency.

Conclusion

The SIT1602BC-83-25S-26.000000X crystal oscillator is an ideal choice for applications where accurate timing and low power consumption are required. It can be used in both clock signals and logic circuits, as well as microsecond timing systems, analog audio applications, and more. This oscillator works by using a crystal resonator to convert electrical energy into vibrational energy, which is then amplified and regulated to produce the desired output frequency.