TB-16.000MCD-T

Frequency Stability:	±25ppm
Current - Supply (Disable) (Max):	--
Height - Seated (Max):	0.032" (0.80mm)
Size / Dimension:	0.197" L x 0.126" W (5.00mm x 3.20mm)
Package / Case:	4-SMD, No Lead
Mounting Type:	Surface Mount
Ratings:	--
Current - Supply (Max):	--
Operating Temperature:	-40°C ~ 85°C
Series:	TB
Voltage - Supply:	2.5V
Output:	CMOS
Function:	Enable/Disable
Frequency:	16MHz
Type:	XO (Standard)
Base Resonator:	MEMS
Part Status:	Obsolete
Packaging:	Tape & Reel (TR)

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Oscillators: TB-16.000MCD-T Application Field and Working Principle

Oscillators are electrical circuits that produce a repetitive or oscillatory electronic signal. TB-16.000MCD-T oscillators are widely used in various fields such as radio communication systems, instrumentation, mobile communication systems, test and measurement equipment, and other commercial and industrial applications. This article will explain the application field and working principle of TB-16.000MCD-T oscillators.

Application Field of TB-16.000MCD-T Oscillators

The TB-16.000MCD-T oscillator is a high-frequency clock-type oscillator, and is mainly used as a clock source for high-speed digital circuits. It is used in a variety of fields, including radio communication systems, instrumentation, mobile communication systems, test and measurement equipment, and other commercial and industrial applications. In mobile communication systems, TB-16.000MCD-T oscillators are used to generate the clock signal for the baseband processor, which is necessary for digital signal processing. They are also used in radio communication systems to generate clock signals for receivers and transmitters, as well as other peripheral circuits. In instrumentation, TB-16.000MCD-T oscillators are used to generate clock signals for data acquisition, control, and other signal processing. They are also used in test and measurement equipment to generate clock signals for data collection, processing, and other functions. In addition, TB-16.000MCD-T oscillators are also used in commercial and industrial applications. They are used to generate clock signals for consumer products, electronic devices, and other applications.

Working Principle of TB-16.000MCD-T Oscillators

TB-16.000MCD-T oscillators are based on a Pierce Oscillator circuit. This circuit consists of a feedback amplifier, an inverter, and an AC coupling capacitor. The feedback amplifier, also known as an emitter-follower, is used to provide a high impedance output that is suitable for use with oscillator circuits. The inverter is used to convert the DC signal into an AC signal, which is then coupled to the output of the feedback amplifier via the AC coupling capacitor. The oscillator is then tuned to a particular frequency by selecting the appropriate components. When the oscillator is powered up, the feedback amplifier amplifies the input signal, and the inverter inverts the signal. This inversion causes the signal to alternate between positive and negative states. The AC coupling capacitor passes the alternating signal to the output of the feedback amplifier, and this AC signal is then fed back into the input of the feedback amplifier. This causes the amplifier to repeatedly change its state, in turn causing the output of the oscillator to oscillate at the frequency determined by the components used.

Conclusion

In summary, TB-16.000MCD-T oscillators are widely used in various fields such as radio communication systems, instrumentation, mobile communication systems, test and measurement equipment, and other commercial and industrial applications. They are based on a Pierce Oscillator circuit, which consists of a feedback amplifier, an inverter, and an AC coupling capacitor. When the oscillator is powered up, the feedback amplifier amplifies the input signal, and the inverter inverts the signal, which is then coupled to the output of the feedback amplifier via the AC coupling capacitor. The oscillator is then tuned to a particular frequency by selecting the appropriate components, and the output of the oscillator oscillates at the frequency determined by the components used.

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