DSC400-1111Q0090KE1T

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Pin Configurable/Selectable Oscillators are built with an assortment of many components like resistors, capacitors, and inductors, which are used to configure the oscillator in a variety of frequencies. The DSC400-1111Q0090KE1T is one such oscillator, capable of providing low jitter output in a variety of wide frequency ranges from 10KHz to 1GHz.

This oscillator can be configured to provide operation with the following selectable frequencies: 10KHz, 20KHz, 100KHz, 500KHz and 1GHz. The number of pins on the DSC400-1111Q0090KE1T oscillator is 4, allowing for the easy installation of components required for its operation.

The DSC400-1111Q0090KE1T oscillator is fabricated using a sinusoidal process technique, and in comparison to other types of oscillators, it works with excellent stability, has superior low jitter operation, operates in a very low-noise environment, and has excellent frequency-jitter performance.

This oscillator makes use of the low noise SOT23-5 packaging and has an industry-standard pinout, making it easy to install and use in a variety of applications. Thanks to its low jitter values and high frequency stability, the DSC400-1111Q0090KE1T oscillator is suitable for precision timing, frequency generation, clock synchronization and other operations in a variety of applications.

Since this oscillator has many selectable frequencies, it is especially well-suited for applications such as clock and data recovery, phase lock loops, frequency synthesizers and phase-frequency modulators. It also has superior phase noise performance, making it suitable for operations in digital communication systems such as ISDN, EDGE, GPRS, CDMA and Bluetooth. It is also used in HDTV systems.

The working principle of the DSC400-1111Q0090KE1T oscillator is based on the use of several components including a resistor, capacitor and inductor, which are connected in an oscillatory network so as to produce a sinusoidal signal of a precise frequency. This signal is then amplified and fed back to the oscillator network, resulting in a signal of the precise desired frequency.

The oscillator also employs a high level of precision frequency control in order to ensure that its signal remains highly stable over time even when varying environmental conditions are present. The oscillator is also designed to achieve excellent low jitter operation, and hence is suitable for a variety of applications that require precise timing.

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