These slides from a webinar presentation give a detailed overview of the principles of measuring phase noise. The underlying relationships between phase noise spectral energy, demodulated phase noise, frequency etc. are described. The presentation also includes a description of the "modern" definition of phase noise along with current measurement techniques.
These seminar notes give a good discussion of the principles of phase noise. Specifically the authors describe the difference between measuring phase noise directly or using phase/frequency demodulation techniques. The notes describe details about the limitations and equipment performance requirements for making phase noise measurements using a variety of techniques. Since these notes are from an older archive, the latest techniques involving the use of correlation are not described.
The RF Design section on the EEWeb site lists news, articles, and app notes for this industry segment. The site also includes a variety of forums, and the RF related forum posts are listed.
Logarithmic amplifiers provide an output voltage that is logarithmically scaled relative to the amplitude envelope of the input signal. Historically these have been used to provide logarithmic Y-axis scaling to spectrum analyzer displays, for example. This app note describes the basic block diagram and principles of operation of a log amplifier.
Converting a phase noise specification to jitter is often desirable for digital designers and others used to working in the time domain. This app note describes the principles of phase noise as well as deriving the conversion to jitter. A useful list of references is also included.
This connector identifier guide features schematic drawings of over 50 different connector types in each gender. The guide also features a chart comparing the maximum frequency capability of each type. A small glossary of RF terms is also included.
A brief overview of power meter technologies as well as links to other valuable resources on the subject. A survey of power meter vendors is also included.
These presentation notes describe some best practices and potential pitfalls of using "lab" versus "general" precision connectors in your testing environment. In this paper, "lab" precision generally refers to the air-dielectric 3.5-mm and 2.92-mm connectors, while "general" precision refers to SMA-style connectors.
This application note provides and in-depth analysis of the performance of connections using mixed connector types among SMA, 3.5-mm, and 2.92-mm varieties. These connectors are all designed to work together mechanically, but have some differences electrically.