You need to test, we're here to help.

You need to test, we're here to help.
Showing posts with label persistence display. Show all posts
Showing posts with label persistence display. Show all posts

07 July 2017

The Periodic Table of Oscilloscope Tools: View

The View tools arrange acquisition data to suit given needs
Figure 1: The View tools
arrange acquisition data
to suit given needs
We began our survey of Teledyne LeCroy's Periodic Table of Oscilloscope Tools by reviewing our set of Capture tools, which help to isolate and capture signals of interest and shorten time to insight. Now we'll turn our attention to the next grouping of tools: the View tools.

21 October 2015

Analyzing Pulse-Width Modulation Signals

Persistence display provides a quick-and-dirty view of a PWM signal
Figure 1: Persistence display provides
a quick-and-dirty view of a PWM signal
Pulse-width modulation (PWM), a favorite technique for achieving analog ends through digital means, finds application in all kinds of end systems. Motor control might be the number-one application, but PWM turns up in telecommunications, audio systems and amplifiers, and any number of other uses. Armed with a capable oscilloscope, one can thoroughly analyze and understand the behavior of PWM circuits.

23 December 2013

Back to Basics: Jitter

Jitter defined
Figure 1: Jitter is short-term variation
of a signal with respect to its
ideal position in time
Anyone working in applications that involve digital data, clocks, and serial data in general will eventually bump up against issues concerning jitter. Jitter is a subject of keen interest to every strata of the electronics industry. Chip makers, board integrators, system integrators, you name it: Everybody wants, and needs, to come to terms with jitter. It impacts reliability, manufacturability, and cost at all levels. And, of course, it's of keen interest to purveyors of test instruments, including us here at Teledyne LeCroy. In this first post of a projected series on jitter, we'll look at some of the tools built into modern digital oscilloscopes for jitter measurement and analysis.

18 June 2013

Back to Basics: Random Interleaved Sampling

Figure 1: This image illustrates the general principle underlying RIS.
Figure 1: This image illustrates the
general principle underlying RIS.
Modern oscilloscopes come with all kinds of bells and whistles, and users might be tempted to invoke them for all sorts of situations. But not every whiz-bang feature of an oscilloscope is applicable all the time. Rather, some features are great in the right applications but disastrous in others.