NI-10M-2455

Oscillators

NI-10M-2455 is one of the oscillator types that can be used for a variety of purposes. It works by providing a continuous output of a single frequency, waveform, or pulse package. This makes it a popular choice for frequency monitoring, signal source testing, and frequency and phase measurements.

The NI-10M-2455 oscillator works by converting an electrical signal into a sinusoidal waveform. The frequency of the waveform can be either fixed or variable and can range from 10 to 40 MHz. The output can be further adjusted for amplitude, duty cycle, and pulse width.

The oscillator works by using a voltage-controlled oscillator (VCO) to generate a frequency. This frequency is then passed to a phase-locked loop, which uses feedback from the signal to regulate the frequency. The oscillator then uses a digital counter to generate pulse packages at a desired frequency. The oscillator is controlled by a digital signal processor (DSP) to maintain phase stability.

The NI-10M-2455 oscillator is used for a variety of applications. It is used in frequency monitoring, signal source testing, frequency and phase measurements, digital communication systems, and in many electronic measurements and laboratory experiments. This type of oscillator is also ideal for use in systems that require precise frequency control.

The NI-10M-2455 oscillator is a small, low-cost, and compact solution. It is highly reliable and long lasting, and has a low power consumption. This makes it ideal for use in a variety of scenarios, including in embedded systems, industrial control applications, or laboratory experiments.

In summary, the NI-10M-2455 oscillator is a reliable and cost effective solution for a variety of applications. It works by using a VCO to generate a frequency, which is then regulated by a phase-locked loop and a digital counter to create a pulse package. The oscillator is highly reliable, low-power, and long lasting. It is ideal for applications such as frequency monitoring, signal source testing, and frequency and phase measurements.