Almost every electronic device needs a clock source. For example, a microcontroller (MCU) uses an oscillator to advance the next instruction, and a radio needs an accurate oscillator to mix ...

However, as ASIC and SoC clock receivers become increasingly customized, these fixed-amplitude standards no longer provide an optimal balance between power consumption, noise performance, and signal ...

Oscillators are as ubiquitous—and, some might argue, as important—as power supplies in electronics systems, finding use in anything that needs a timing signal, from digital watches to TVs and PCs.

It’s all physics. How things work, that is. You’ve heard me say that before in this column, but I suppose I’m a little biased (or realistic) as my first degree is in physics — applied physics, to be ...

A revolution is under way in timekeeping. Precision timekeeping based on atomic clocks already underpins much of our modern technology—telecommunications, computer networks and satellite-based ...

This file type includes high resolution graphics and schematics. Virtually every electronic product requires at least one precision timing circuit. Many devices require as many as 10 separate clocks.

To ensure the authenticity of the Galileo navigation messages, the Open Service navigation message authentication (OSNMA) mechanism requires a loose synchronization between the receiver clock and the ...

It took the combined experiences of several types of CMOS silicon designers to come up with the smallest high-performance low-cost microelectromechanical-system (MEMS) oscillator on the market. This ...