Sample Setup Files

Here we have sample files setting up your Cleverscope to capture a signal. These are .apc files and capture all settings and screen placements for the scope, enabling repeatability for experiments and testing. They are very useful for university class sets to be initialised for a particular scenario.

Download and extract from the zip file. Go to File | Open and browse to the .apc file. Where "Get Frame" had been clicked before saving the full frame is included in the file

CS548 Triggering

CS548 Triggering tour, shows how you can trigger on a variety of signals.

CS448 Streaming

The CS448 does streaming to disk for all channels and digital inputs until the disk is full. Streaming can be very useful for looking at start up behavior, capturing long message sequences, or looking for anomalies in the signal. It is also useful for when the scope single shot time duration is too short (currently +/- 5.36 secs) for your needs. Once captured you can export chunks of the waveform as a standard cleverscope file, text or binary for colleagues to use, do protocol decoding, maths, spectrum analysis, or quickly drill into any portion of the waveform and make measurements. This example captures a 1-100 kHz sine wave sweep with a 2 MSPS sample rate. We examine the waveform...

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109Mb

EEVBlog Interview with Bart about the new CS448

At Electronex in Sydney in September 2018 Dave discussed the latest CS448 oscilloscope with Bart

FRA How to - Save FRA data points to text file

Use the Cleverscope Frequency Response Analyser to measure and then save FRA data points to a text file for analysis with an external program such as Excel or Matlab. We also show how you can use the AddRef to see a family of captured curves.

FRA How to - Filter Response

Use the Cleverscope Frequency Response Analyser to measure the Gain/Phase response of a Minicircuits BBP-30+ bandpass filter. This video shows you how to connect up a CS328A-FRA to measure the Gain/Phase of the Minircircuits filter over the frequency range 1 MHz - 65 MHz.

FRA How to - PSU Gain/Phase

Use the Cleverscope Frequency Response Analyser to measure the Gain/Phase of a power supply. This video shows you how to connect up a CS328A-FRA to measure the Gain/Phase of an LTC3589 over the frequency range 20 Hz - 1 MHz.

FRA How to - Power Supply Rejection Ratio

Use the Cleverscope Frequency Response Analyser to measure the Power Supply Rejection Ratio (PSRR) of a power supply with the CS1070 Power Amplifier. It can manage up to 1A output current over a voltage range of -18V to +30V over a frequency range of DC - 52 MHz. This is sufficient to directly measure many power supplies. If this is not enough, you can inject across a low value series resistor (eg 0.1 ohm). This video shows you how to connect up a CS328A-FRA and CS1070 to measure the PSRR of an LTC3589 over the frequency range 200 Hz - 10 MHz.

FRA How to - Input Impedance

Use the Cleverscope Frequency Response Analyser to measure the input impedance of a power supply with the CS1070 Power Amplifier. It can manage up to 1A output current over a voltage range of -18V to +30V over a frequency range of DC - 52 MHz. This is sufficient to directly measure many power supplies. If this is not enough, you can inject across a low value series resistor (eg 0.1 ohm). This video shows you how to connect up a CS328A-FRA and CS1070 to measure the Input impedance of an LTC3589 over the frequency range 200 Hz - 10 MHz.

FRA How to - Output Impedance

Use the Cleverscope Frequency Response Analyser to measure low impedances (1mOhm - 20 Ohm) including on live Power Supplies. This video shows you how to connect up a CS328A-FRA and measure the Output impedance of an LTC3589 over the frequency range 20 Hz - 1 MHz.

FRA Family of curves

You can use the 'AddRef' persistence command to make a family of curves, and then step around them, and make further measurements as needed. This video shows you how to collect a family of Gain/Phase plots for a TI 5V 2.5A power supply, as the load current is varied from 2.5A to 1A and then 0.5A.

FRA BNC fixture calibration

The FRA BNC Fixture calibration procedure corrects for amplitude, gain and phase errors introduced by a test fixture. In addition we can compensate for the open circuit capacitance of the fixture. This video shows you how to simply calibrate a fixture, and then shows you the results with three 0603 SMT capacitors. You can use the fixture to reliably measure component values up to 65 MHz.

Calibrating BNC cables for FRA use

The FRA BNC cable calibration procedure corrects for amplitude, gain and phase of the BNC cables and terminations used to measure system frequency response, impedance or capacitance and inductance. After doing a BNC cable calibration you will achieve a flat gain/phase response with directly connected BNC cables, ensuring that the responses you measure are those of your system, and not the cables and terminations.

Calibrating Probes for FRA use

The FRA probe calibration procedure corrects for amplitude, gain and phase of the probes used to measure system frequency response, impedance or capacitance and inductance. After doing a Probe calibration you will achieve a flat gain/phase response with directly connected probes, ensuring that the responses you measure are those of your system, and not the probes.

Persistence on the Spectrum Display

We have finally added Reference Plots and Persistence to the Spectrum Display. Watch this video to see it in action. Very useful when comparing FRA plots, or checking on stability or occupied bandwidth.

Impedance measurement with FRA

We use the FRA panel to measure the Impedance and Capacitance/Inductance of components such as capacitors, inductors, transformers and PCB's.

Frequency Response Analyser Tour

Cleverscope has made a new FRA control panel to make it easy to use Frequency Response Analysis (FRA) on a Cleverscope. Using the new CS701 isolated signal generator you can measure the power supply system stability, do gain phase plots of feedback loops, amplifiers and filters, and measure the impedance of components. You can also measure mechanical system stability. The CS701 and FRA control work over 0.1 Hz to 65 MHz. This video is a simple tutorial on FRA and how to use a Cleverscope to do it.

Streaming 10 hours to disk

This streaming tour shows Cleverscope streaming more than 38 G Samples to disk at 1 MSPS with 14 bits resolution and ENOB, all the while looking at the signal using Spectrum Analysis, the Tracking Display, Protocol Analysis and Signal Information. We quickly pan and zoom through the more than 10 hours of recorded signal and show save and load from disk for later review. We know of no other oscilloscope that can do this.

CS701 Isolated signal generator

A first look at using the Cleverscope CS701 isolated Signal Generator operating with a very low 200uV rms level. We see 25 dB dynamic range, and flat response. This shows that the CS701 can be used to excite the feedback path in power supplies with a very wide dynamic range - from 200uV to 2V rms, with full 300 V RMS isolation. No need for an isolating transformer, and the current drive need to magnetize it. Simple connect to a small value resistor in the feedback path - anywhere on the power supply to verify gain and phase over a frequency range of 0Hz to 65 Mhz.

Display Docking

With display docking you can move all the Cleverscope windows in one group by moving the Cleverscope Control Panel. You can also minimize and restore as a group by minimizing just the Control Panel. This video shows you how.

Cleverscope Amplitude Axis

The Cleverscope Scope Display sets the amplitude range presented to the Analog to Digital Converter (ADC). You can type values directly onto the axis, use the expand/contract buttons, keyboard shortcuts, or the zoom tools. This video shows you how.

Charting - Streaming to disk

You can use Charting to stream captured samples to disk continuously at up to 1.5 Msps. The maximum capture size is around 200 G samples. After having captured you can zoom and pan very quickly to find the features important to you. This video shows you how. You can capture mixed signal analog and digital at the same time.

Cleverscope Tour 2

A quick tour of many Cleverscope features, including Frequency Response, Maths, Streaming to disk, Matlab / Excel and Word connectivity, Protocol decoding, Repetitive capture and much more.

Frequency Response

Evaluating the Gain/Phase response of a switch mode power supply can be difficult because of the large amounts of switching noise. The Cleverscope application provides a synchronous Gain/Phase facility using the built in Signal Generator, and advanced DSP to automatically plot the Gain/Phase response. The adaptive signal generator output level mode uses the coherence between the stimulus and response values to achieve a good response plot. This tour is a step by step guide on measuring a switch mode power supply gain/phase response.

Cleverscope Tour

Cleverscope Tour takes you through some of the capabilities of the Cleverscope application such as Charting, Protocol Decode, Spectrum Analysis, Matlab and Excel live link and copy and paste.

Copy and Paste

Copy and paste with Cleverscope is fast and powerful. You realize how useful it is after going back to find crucial information in the pasted graph. The same goes for File Save. Not much more effort than that, but could save you heaps of time and effort later in reproducing what you've already done.

Gain Phase Measurement

Use Cleverscope to measure the Gain Phase response of a network. Results are displayed in linear or log form, with linear or log frequency axis. Phase can be displayed in radians or degrees, and unwrapped to achieve a continuous plot. The internal 0-10 MHz sig gen, or an external sig gen can be used.

Four channel Cleverscope

This short video shows you how to connect up a 4 channel Cleverscope, and use Ethernet connections.

Knobs vs Cleverscope

People often comment that knobs are easier to use. We don't personally think so! Watch the video and make up your own mind.

Start Using a Cleverscope

This Video shows you how to start using a Cleverscope. You'll see how to capture a signal, and how to do simple triggering.

'EEVBlog Interview with Bart Schroder'

Dave caught up with the designer of the Cleverscope, Bart Schroder at the Electronex show. He gives us some history on the company, the scope, a quick on the spot teardown, and what latest scope design he's working on.

'SPI Protocol Decode'

This shows how to decode 10 seconds of SPI messages

'Cleverscope live export to Matlab Spectrogram'

This video shows how you set up a filter, and use Cleverscope to export filtered results to Matlab to display a live spectrogram.

'Cleverscope live export to Excel'

Cleverscope can export multiple individual derived values such as Frequency, RMS or Maths results using DDE to Excel. In addition you can log derived values to Excel in real time. You can save results at up to 20 result sets per second.

'Cleverscope live export to Matlab'

This video shows you how to set up the Maths equation builder to send Cleverscope signals to Matlab via a Matlab access function, get the result back, and display it.

Display, triggering and saving

Set up the oscilloscope to show a couple of cycles, adjust the trigger and then copy and paste the waveform into a Word document. (In German)

Single Event Triggering

Using two triggers in tandem to identify an event (in German)

Single Event Triggering

Using two triggers in tandem to identify an event

A simple trigger

A simple trigger to lock on sync pulses. (in German)

A simple Trigger

Set up the oscilloscope to show a couple of cycles, adjust the trigger and then copy and paste the waveform into a Word document

Display, triggering and saving

Set up the oscilloscope to show a couple of cycles, adjust the trigger and then copy and paste the waveform into a Word document

Introducing Cleverscope - What cleverscope is

Overview of the CS328A with demonstrations of the graphs, saving data, naming and scaling, maths functions and the signal generator.

Maths Event Counting

You may use Cleverscope to count events. This video shows you how. Some example events might be teeth on an encoder, number of clock pulses to an SPI device, number of disk accesses per second, ... that sort of thing. As you can see, using Maths is easy.

Matlab Connector

A simple Matlab example that allows you to connect to the scope and acquire some data. Demonstrates both 2d and 3d display options

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10k

E1 signal with synch pulse

This file illustrates use of the dual trigger to capture the synch pulse in a Telecommunications E1 timing stream. We are looking for synch pulse characterized by a falling edge through 1V to falling edge through -1V being in the range 1.1 to 1.3 usecs. The unit under test included a modulated 1.54 MHz signal, an 891 kHz clock and a serial data stream.

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4.33MB

Narrow Band Spectral Analysis

This full buffer (4M) signal contains mixed 1000 kHz and 1001 kHz signals to illustrate the narrow band spectral analysis ability of version 4.649+. The graph also illustrates the very low Cleverscope Intermodulation Distortion. Includes a descriptive pdf in the zip file.

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14.3MB

Trigger + Protocol Decode 4MS

This full buffer (4MS) mixed signal example illustrates an SPI controlled frequency sweep of 25 steps. Chan A is the sig gen output, chan B is a serial output sending the sig gen frequency, In 1 is the SPI clock, In 2 is the SPI data, and In 3 is the SPI chip select*. The zip includes a descriptive PDF.

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4.46MB

Trigger + Protocol Decode 1.8MS

This full buffer (1.8MS) mixed signal example illustrates an SPI controlled frequency sweep of 10 steps. Chan A is the sig gen output, chan B is a serial output sending the sig gen frequency, In 1 is the SPI clock, In 2 is the SPI data, and In 3 is the SPI chip select*. The zip includes a descriptive PDF.

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2.29MB

Filtering

This full buffer example and descriptive .pdf show how you can capture a signal, and then use filtering to improve signal to noise ratio, and measure signal vital statistics. Includes measurement of SINAD, ENOB and SFDR. Works best with version 4638+

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4.6MB

State system

This signal illustates a state system running inside an FPGA (in this case the Cleverscope digitizing state system), with the state variable being monitored by external digital outputs.

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1.62MB

Deep Memory Protocol Decode

This full buffer (4M) mixed signal example illustrates an SPI decode with automatic determination of the sample set size needed to meet the 10 second decode requirement. Includes a descriptive pdf. See YouTube to watch a video showing the decode process.

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10.39MB

SPI Dac

This graph shows an SPI DAC being updated. The DAC is selected when nCS goes low. The information is transferred using the clock.

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1.36MB

USB interface transceiver

CY7C68013 USB chip receive and send

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2.94MB

USB Interface Engine

CY7C68013 USB chip interface activity This graph illustrates the signals associated with using a Cypress CY7C68013A to transmit and receive bytes using full handshake. The analog signals Bytes rxd and Rdy to Tx are used to verify rise and fall times, and to check for the arrival of bytes , and the availability of the interface to send bytes.

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3.21MB

SPI Sig Gen

This graph illustrates the Cleverscope AD9834 based signal generator device being updated to change the DC output voltage, output a signal, and then change the output amplitude.

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2.22MB

Frequency Trigger

To demonstrate triggering when the signal is within a particular frequency range. You can then use another channel to capture what is happening in another part of the circuit.

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72KB

FRA Persistence Plots

We have added persistence, reference curves, and the ability to use the tracer and markers on any of the persistence plots being displayed in the Spectrum Display.

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Monotonic Runt Pulse

Using the dual trigger s it is easy to detect a pulse that does not go fully to ground

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Runt Signal

By using the dual trigger and checking that a rising edge continues to do so, you can locate a runt pulse.

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Knobs are an option on cleverscope

You asked for them so they were added! For those who like the effect. Remember you can also use your mouse wheel to control whichever effect has the focus. So click on timebase expand and then use your wheel to zoom in and out.

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10.7 MHz IF envelope

Demonstrates the use of two triggers to lock on the envelope. Set the first trigger negative going just after the peak, trigger two the inverse and time between greater than 40% of a half cycle of modulation.

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Four Channel Scope

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Finding a Glitch

By using the dual trigger capability and the tracking graph you are able to locate a rogue pulse.

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Logging Screen

Any signal information can be logged at up to about 15 Hz. An added bonus is being able to see as much of the captured file as you wish while capturing is happening. You are also able to open the file in the standard scope graph and see the first two channels of captured data.

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4 Channel Digital Inputs

The Scope Graph for the four channel scope showing all the digital inputs selected. You are able to choose any or all of the inputs (Note that 14 bit units are limited to the first four channels of each scope)

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Crosstalk Measurement

Use Cleverscope to measure the crosstalk of a UUT after characterising the internal performance. As shown here, crosstalk within the Cleverscope acquisition unit is about -95dB down

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DC Offset

Two usb oscilloscope with the same input signal - a 400mV, 1kHz signal on 2V DC. The cleverscope graph (on the right) offsets the input range to achieve 10 (or 12, or 14) bits across the chosen amplitude range - the competitor has to use its 8 bits of resolution to digitise the full -5 to +5 volts. The result speaks for itself but for more, check out the new "Cleverscope Oscilloscope Review" on our resources page.

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Digital Size and Decoding

There are two options for the size of the digital window which are demonstrated here. This also shows the decoding of an spi data stream.

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Persistence

Persistence is now available in the desktop application. If you already own a Cleverscope download the update to use this feature. Here we are using it to generate a typical "eye" diagram.

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Narrow Band Spectrum

We now provide narrow band spectral analysis, with up to 2M samples in the FFT. This allows 50 Hz resolution in a 50 MHz bandwidth.

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Video Signal

PAL Video signal with frame sync triggering

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