SIT1602BC-11-25N-32.768000E

    Oscillators are ubiquitous in modern electronics, and are present in almost all electronic and electrical systems. For instance, the microprocessors in smartphones, computers, and other gadgets rely on them for timing and other operations. One such oscillator is the SIT1602BC-11-25N-32.768000E oscillator, which is becoming increasingly popular for its high-performance and reliability. This article explores the application field and working principle of the SIT1602BC-11-25N-32.768000E oscillator.     Oscillators can be grouped into two categories: LC-based oscillators and timing oscillators. The SIT1602BC-11-25N-32.768000E oscillator belongs to the latter. It is a low-cost and low current-consumption timing oscillator with a high-precision clock frequency that can drive microprocessors, memory chips, and other integrated circuits. As such, it is suitable for a variety of applications including mobile electronics, medical electronics, and aircraft electronics.     To understand the working principle of the SIT1602BC-11-25N-32.768000E oscillator, one must first understand its component parts. It consists of an oscillator circuit, a quartz crystal resonator, and two capacitors. The quartz crystal resonator is a type of piezoelectric transducer which converts an applied voltage into a mechanical vibration. This vibration is then converted back into an alternating current signal by the oscillator circuit.     When the oscillator is powered on, an alternating current signal is fed from the quartz crystal resonator into the oscillator circuit. The signal contains both a sine wave and a square wave component. The sine wave functions as the timing signal, and the square wave component is used to correct the timing signal. The two capacitors connected at the output of the oscillator are then used to stabilize the oscillator circuit, and ensure that the output signal is accurate and precise.     The SIT1602BC-11-25N-32.768000E oscillator has a wide application field due to its high performance and reliability. As a timing oscillator, it can be used in mobile electronics, medical electronics, and other systems requiring precise timing signals. The oscillator can also be used in other applications requiring low-cost, low power-consumption, high precision clock signals such as embedded computers, POS systems and wearable electronic devices.    In conclusion, the SIT1602BC-11-25N-32.768000E oscillator has a wide range of applications due to its high-performance and reliability. It is a low-cost, low power-consumption, and high-precision timing oscillator, which makes it suitable for mobile electronics, medical electronics, and other systems requiring precise timing signals. It consists of an oscillator circuit, a quartz crystal resonator, and two capacitors, which work together to produce the accurate and precise output signal.

SIT1602BI-72-30S-33.300000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-33.330000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-33.333000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-33.333300D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
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SIT1602BI-72-30S-37.500000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-38.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-38.400000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-4.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-4.096000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-40.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-40.500000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-48.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-50.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-54.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-6.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-60.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-62.500000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-65.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-66.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-66.600000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
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SIT1602BI-72-30S-66.666000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-66.666600D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
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SIT1602BI-72-30S-7.372800D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-72.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-74.175824D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-30S-74.176000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
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SIT1602BI-72-33E-10.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-33E-14.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
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SIT1602BI-72-33E-20.000000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...
SIT1602BI-72-33E-24.576000D	SiTime	0.43 $	1000	-40 TO 85C, 2016, 25PPM, ...