AX7MCF1-709.5260C

An oscillator is an electronic circuit designed to produce a periodic, oscillating electrical signal, often a sine wave or a square wave. Oscillators convert direct current (DC) from a power supply to an alternating current (AC) signal. They are widely used in electronic products such as timers, computers, cell phones, clocks, radios, and video game consoles. The AX7MCF1-709.5260C is an oscillator that is used in various applications.

AX7MCF1-709.5260C Application Field

The AX7MCF1-709.5260C oscillator is a MEMS-based chip oscillator for use in low-noise, high-temperature and low-power applications. It is designed to support frequency control in low-power applications, such as consumer electronics, telecommunications, automotive, and industrial. It features very low-noise, high-temperature operation, low jitter, and low power consumption. It also has the ability to support multiple responses for inconsistent signals and can be used in multiple output frequencies.

The AX7MCF1-709.5260C operates with a wide latency range eligible for LC tank applications, considered ideal for telecommunications and industrial applications. It has an extended operating temperature range of -40 °C to +125 °C. The AX7MCF1-709.5260C oscillator has a low-power consumption and low-jitter of around 1ps, making it ideal for applications such as frequency control, timing control, clock signal generation, and Pulse Train Control.

AX7MCF1-709.5260C Working Principle

The AX7MCF1-709.5260C oscillator consists of a frequency-determining element resonant circuit, an electronic amplifier, and a feedback network. The frequency-determining element is typically a quartz crystal or ceramic resonator and is connected to an amplifier. The amplifier output is then fed back to the resonator in a closed loop. The frequency of the oscillator is determined by the resonant frequency of the resonator and the gain of the amplifier.

The resonator is typically a quartz crystal or ceramic resonator. The crystal or ceramic resonator is connected to the amplifier – usually a transistor amplifier with a gain sufficient to maintain oscillations. The amplifier output is then fed back to the resonator in a closed loop, so the signal is amplified, sent through the resonator and then fed back to the amplifier. This process continues indefinitely until the loop is disrupted. The frequency of oscillation is determined by the resonant frequency of the resonator and the gain of the amplifier.

The AX7MCF1-709.5260C oscillator is an excellent source of low-noise, high-temperature, and low-power frequency control. It is designed to support consistent frequency control in low-power applications across multiple frequencies, making it ideal for low-noise, high-temperature and low-power applications such as consumer electronics, telecommunications, automotive, and industrial products.