Telonic TEST

Category: Knowledge Base DS1000 Series

  • High Impedance vs. 50 Ohm Impedance

    High Impedance vs. 50 Ohm Impedance

    Explains why 50 Ohm impedance inputs can improve signal fidelity on high speed signals by removing reflections caused by capacitance or inductance.

  • I2C Trigger and Decode

    I2C Trigger and Decode

    Learn how to setup I2C trigger and decode option.

  • How to use Peak Detect

    How to use Peak Detect

    Use peak detect to measure narrow pulses.

     

  • Using UltraScope from RIGOL with NI Max on Windows 10

    Using UltraScope from RIGOL with NI Max on Windows 10

    Some versions of Windows 10 make it difficult to run UltraScope from UltraSigma, RIGOL’s communications platform. UltraSigma can have difficulty accessing needed files and directories.

    For RIGOL Oscilloscopes (UltraVision I and II including the DS1000Z, DS1000Z-E, DS2000A, MSO2000A, DS4000, MSO4000, MSO5000, DS7000, MSO7000, DS8000-R, and MSO8000), there is currently a workaround to access the capabilities of UltraScope without starting UltraSigma.
    Start by installing the full version of the latest NI-VISA appropriate for your Operating System. At the time of writing this was NI VISA 20.0 for Windows 10. This installs NI MAX as well.
    Then install UltraScope from the appropriate scope family page on rigolna.com.
    Connect your instrument over USB and then Open NI MAX. Select the arrow next to “Devices and Interfaces” to see the connected instruments. Click on your oscilloscope and then copy the VISA Resource Name like this:







    Now Open UltraScope by clicking on the shortcut on the desktop or in the apps directory. It will start with this screen:

    Select Search for Instruments.

    On this screen click OK:


    Now click on Manual Input VISA Address here:


    Now paste in the VISA Address from NI Max, Select the instrument from the list, and click OK:


    UltraScope will start and capture traces from your Oscilloscope:


    You can capture the scope display image directly by right clicking on UltraScope and selecting “Print Instrument Screen”:

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  • Math Operations

    Math Operations

    Math Functions allow you to perform calculations on one or more signals allowing for rapid signal comparison and enabling advanced modeling of more complex waveforms.

  • X-Y Display mode on Scopes – additional features with RIGOL DS1000Z-series oscilloscope (DS1074, DS1074Z-S, DS1104Z, DS1104Z-S)

    X-Y Display mode on Scopes – additional features with RIGOL DS1000Z-series oscilloscope (DS1074, DS1074Z-S, DS1104Z, DS1104Z-S)

    New DS1000Z series offers more in X-Y mode:

    In this mode, the Rigol DS1074Z oscilloscope changes 2 of the 4 channels from voltage-time display mode to voltage-voltage display mode. The phase deviation between two signals with the same frequency can be easily measured via Lissajous method. The figure below shows the measurement schematic diagram of the phase deviation.

    To access the Lissajou mode of your oscilloscope press the horizontal menu button, and then change the time scale on the screen to X-Y mode. From here you can choose between CH1-CH2, CH1-CH3, CH1-CH4, CH2-CH3, CH2-CH4 and CH3-CH4 as your inputs.

    NOTE: RIGOL’s new DS1000Z-series offers two features in X-Y mode: you can still see a condensed normal signal display (Y-T) at the top margin of the screen and you can also access the Trigger Menu in X-Y mode.

  • Which oscilloscope probe is best for my application

    Which oscilloscope probe is best for my application

    Selecting the correct oscilloscope probe is very important for making quality measurements. If the probe performance is not adequate or if you did not select the proper probe for your application, you will see distorted or misleading signals on your oscilloscope. There are two kinds of probes, passive and active. Active probes requires power while passive probe do not. For general-purpose measurements(<600MHz), passive high-impedance resistor divider probes are good choices in general. For high-frequency applications less than 600 MHz, active probes are the way to go. They cost more than passive probe and their input voltage is limited, but because of their significantly lower capacitive loading, they give you more accurate insight into fast signals. Selecting the right probe is the first step for your application towards correct measurements. Below is the RIGOL scope probe table which can help you to select a proper probe for your application.

    Type
    Model
    Number
    Attenuation
    Ratio
    Bandwidth
    Input R
    Max. Input voltage
    RIGOL scope Compatility
    Recommended
    Applications
    Passive high resistance probe
    RP2200
    1:1 or 10:1

    1X:DC~7MHz
    10X:DC~150MHz

    1X:1MΩ±2%
    10X:10MΩ±2%
    1X:CAT||150V AC
    10X:CAT||300V AC
    DS1000 series,DS2000 series,DS4000 series,DS6000 series small signal test(1X),
    General purpose test
    RP3300A
    10:1
    10X:DC~350MHz 10X:10MΩ±2% 10X:CAT||300V AC
    DS1000 series,DS2000 series,DS4000 series,DS6000 series
    General purpose test
    RP3500A
    10:1
    DC~500MHz
    10MΩ±2% CAT||300V AC DS1000 series,DS2000 series,DS4000 series,DS6000 series General purpose test
    RP5600A
    10:1
    DC~600MHz
    10MΩ±2% CAT||300V AC DS4000 series,DS6000 series General purpose test
    Passive low resistance probe
    RP6150A
    10:1
    DC~1.5GHz
    500Ω±10Ω CAT|7V AC DS4000 series,DS6000 series High frequency signal ended small signal test
    Passive high voltage probe
    RP1300H
    100:1
    DC~300MHz
    100MΩ CAT|2000V(DC+AC)
    CAT||1500V(DC+AC)
    DS1000 series,DS2000 series,DS4000 series,DS6000 series High voltage test
    RP1050H
    1000:1
    DC~50MHz
    100MΩ DC:0~15KV DC
    AC:pulse≤30KVp-p
    AC:sine wave≤10KVrms
    DS1000 series,DS2000 series,DS4000 series,DS6000 series High voltage test
    Active differential probe
    RP7150
    10:1
    DC~1500MHz
    Differential mode:50kΩ±2%
    Single ended mode:24kΩ±2%
    ~30V(DC+AC) DS4000 series,DS6000 series Differential/Single ended high frequency signal test
    High Voltage differentia RP1025D X20,X50,X200 25MHz Differential :4MΩ/1.2pF
    Single ended :2MΩ/2.3pF
    Atten X20:
    ≤140Vpp,(45Vrms or DC)
    Atten X50:
    ≤350Vpp,(110Vrms or DC)
    Atten X200:
    ≤1400Vpp,(450Vrmsor DC)
    DS1000 series,DS2000 series,DS4000 series,DS6000 series High voltage differential/Single ended signal test
    RP1050D X100,X200,X1000 50MHz Differential:100MΩ/1.2pF
    Single ended mode>:50MΩ/2.3pF
    Atten 100:
    ≤700Vpp,(230Vrms or DC)
    Atten X200:
    ≤1400Vpp,(460Vrms or DC)
    Atten X500:
    ≤3500Vpp,(1140Vrmsor DC)
    Atten X1000:
    ≤7000Vpp,(2300Vrmsor DC)
    DS1000 series,DS2000 series,DS4000 series,DS6000 series High voltage differential/Single ended signal test
    RP1100D X100,X200,X1000 100MHz Differential :100MΩ/1.2pF
    Single ended mode:50MΩ/2.3pF
    Atten 100:
    ≤700Vpp,(230Vrms or DC)
    Atten X200:
    ≤1400Vpp,(460Vrms or DC)
    Atten X500:
    ≤3500Vpp,(1140Vrmsor DC)
    Atten X1000:
    ≤7000Vpp,(2300Vrmsor DC)
    DS1000 series,DS2000 series,DS4000 series,DS6000 series High voltage differential/Single ended signal test
    Model
    Number
    Gain Bandwidth Gain Accuracy Max.Input Current
    RIGOL scope Compatility
    Recommended
    Applications
    Current Probe RP1001C 0.01V/A,0.1V/A DC to 300KHz 100mV/A:±3% ±50mA
    (50mA to 10A peak range )
    10mV/A:±4% ±50mA
    (500mA to 40A peak range)
    100mV/A:±15% Max.
    (40A to 100A peak range)
    DC:±100A
    AC P-P:200A
    AC RMS:70A
    DS1000 series,DS2000 series,DS4000 series,DS6000 series Current test
    RP1002C 0.05V/A,0.5V/A DC to 1MHz 500mV/A:±3% ±20mA
    (20mA to 14A peak range )
    50mV/A:±4% ±200mA
    (200mA to 100A peak range)
    50mV/A:±15% Max.
    (100A to 140A peak range)
    DC:±100A
    AC P-P:200A
    AC RMS:70A
    DS1000 series,DS2000 series,DS4000 series,DS6000 series Current test
    RP1003C 0.1V/A DC to 50MHz ±1.0%rdg ±1mV, ≤30A
    ±2.0%rdg , 30A to 50A peak non-continuous
    AC P-P:50A peak,non-continuous
    AC RMS:30A
    DS1000 series,DS2000 series,DS4000 series,DS6000 series Current test,must order RP1000P power supply
    RP1004C 0.1V/A DC to 100MHz ±1.0%rdg ±1mV, ≤30A
    ±2.0%rdg , 30A to 50A peak, non-continuous
    AC P-P:50A peak,non-continuous
    AC RMS:30A
    DS1000 series,DS2000 series,DS4000 series,DS6000 series Current test,must order RP1000P power supply
    RP1005C 0.01V/A DC to 10MHz ±1.0%rdg ±1mV, ≤150A
    ±2.0%rdg , 150A to 300A peak
    AC P-P:300A peak,non-continuous
    500A Peak,pulse width ≤30us
    AC RMS:150A
    DS1000 series,DS2000 series,DS4000 series,DS6000 series Current test,must order RP1000P power supply
  • Using a Rigol product key to generate a Rigol software licence code.

    Using a Rigol product key to generate a Rigol software licence code.

    Please note…

    • You must enter the product key exactly as it appears on the certificate.
    • The serial number is made up of capital letters and numbers only – There are no lower case letters and no spaces.
    • Please take care when entering the serial number! If you enter an incorrect but valid serial number, the generated software licence code will not be accepted by your instrument.
    • You might find that entering the software licence code into your instrument via the front-panel is rather tedious. Please note that it is possible to enter the code remotely from a PC, using the SCPI control panel within Ultra Sigma. Copying the software licence code from the webpage generator to Ultra Sigma reduces the risk of error. For further information, please refer to the Ultra Sigma Help Document and the Programming Guide for your instrument. Both of these documents and the Ultra Sigma software download can be found on the webpage for your instrument, under the ‘DOCUMENTS, SOFTWARE & VIDEOS‘ tab.
    • For some models it is possible to download the generated software licence code as a ‘.lic’ file, save it to a USB memory stick, then import it into your Rigol instrument from the USB memory stick. For further information, please refer to the User Guide for your instrument.
  • RIGOL scope has a message on screen saying WAIT (in green). All channels ON but I see no signal being displayed. Is this effect to do with triggering?

    RIGOL scope has a message on screen saying WAIT (in green). All channels ON but I see no signal being displayed. Is this effect to do with triggering?

    Yes, you’re right: a WAIT status message is normal behaviour for the Trigger when the scope is not being given quite the right signal for its trigger to fire:
    – You’ll probably remember on all analogue scopes, there are at least two modes: Auto and Normal (sometimes also Single).
    – Normal is where the trace waits for each trigger before it starts to trace across the screen (we all remember the blank trace on old fashioned scopes, until you put it on Auto!).
    – Same with all digital scopes… and because all channels work off same trigger, you won’t see any channels at all.

    All RIGOLs indicate this Normal “untriggered” state by putting up the WAIT announcement. It just means the trigger condition is not being met.

    There are three things you can do here:
    1) Set your trigger mode to Auto
    2) Push the force button, which will invoke just one sweep manually
    3) If there is any readable signal, you can also keep it on Normal, and simply adjust the whatever is receiving signal, and then use the trigger threshold knob to ensure the dotted trigger threshold line on the screen is within the signal levels (just make sure the trigger is spy-ing on the right channel though!

    The advanced trigger types are best avoided too, as they might add more conditions, so just use Edge to begin with.)

    Glad to see you are having fun exploring your scope. Please let our RIGOL-UK team here at Telonic know if this seems right for your set up.

  • How can I use Ultra Sigma to grab data from my RIGOL Scope? E.g. CSV file for viewing in Excel?

    How can I use Ultra Sigma to grab data from my RIGOL Scope? E.g. CSV file for viewing in Excel?

    First of all, install and run Ultra Sigma,
    – Then make sure you can see your scope (Type shown in the Instruments window of Ultra Sigma)
    – AND that the scope response with its serial number to a *IDN? command. (Rt-click on instrument and choose SCPI Panel Control window, then click Send&Receive a *IDN?)

    Once this is OK, Change the setting shown as Base to Advanced (U’Sigma setting drop down next to the word Base – then change Base to Advanced)
    – Click Options – set Timeout to 12000 (not 2000) and Bytes To Read to 11024 (not 1024).
    – Enter in the command line the commands:
    i) :WAV:SOUR CHAN1
    ii) :WAV:MODE NORM
    ii) : WAV:DATA? and click Send&Read after each – a bunch of data should now appear in the window below
    – Select the second tab below, called Current Return Value (data window)
    – Right-click the data and choose Save Current Data To File-> Save for Byte -> Give your CSV file a name

    This CSV file can be opened directly in e.g. Excel, to graph data.

    NOTE: This grabs the SCREEN datapoints at the time of executing the :WAV:DATA? query. Works whether scope is running or not!
    To grab the MEMORY datapoints (which can be much longer and require different Options settings!!) you must first :STOP the scope and ensure your command is in :WAV:MODE RAW.

  • What file formats does RIGOL use for storage of waveforms etc? What is the different between Trace and Waveform?

    What file formats does RIGOL use for storage of waveforms etc? What is the different between Trace and Waveform?

    RIGOL uses many Storage Types and Telonic Ltd. has added this description to www.RIGOL-uk.co.uk:

    To access, on oscilloscopes for example, press [Storage] to select the desired storage type. The default is “Picture”.

    The storage and recall descriptions of each type are as follows, with the examples in this case taken from as DS2000-series oscilloscope (so other instruments such as DG-series won’t offer everything below):

    1. Traces
    Save the waveform data in external memory in “*.trc” format. The data of all the
    channels turned on can be saved in the same file. The difference with waveforms is at recall, the data will be
    displayed on the screen directly.
    2. Waveforms
    Save the waveform data in external memory in “*.wfm” format. The stored files
    contain the waveform data of the two analog channels and the main setting
    information of the oscilloscope and all the data can be recalled.
    3. Setups
    Does not recall all data: instead Setups save the settings of the oscilloscope in internal or external memory in “*.stp”
    format. At most 10 setting files (from LocalSetup0.stp to LocalSetup9.stp) can
    be stored in internal memory. The stored settings can be recalled but not raw data.
    4. Picture
    Save the screen image in external memory in “*.bmp”, “*.png”, “*.jpeg” or
    “*.tiff” format. You can specify the file name and saving directory and save the
    corresponding parameter file (*.txt) under the same directory using the same
    file name. The recall of image and parameter files is not supported.
    After selecting this type:
    Press Pic Type to select the desired storage format.
    Press Para.Save to enable or disable the parameter save function.
    Press Inverted to enable or disable the invert function.
    Press Color to set the color of the image. It can be set to “GrayScale” or “Color”.
    Press Header to enable or disable the header function. When it is enabled, the
    header would display the instrument information, such as the model, date and
    time. Press Footer to enable or disable the footer function. When it is enabled, the
    footer would display the serial number of the instrument.

    TIPS: After a USB storage device is connected, press at the front panel to quickly
    save the current screen image under the root directory of the USB storage device
    in “.png” format by default.
    5. CSV
    Save the waveform data displayed on the screen or of the specified channels in
    external memory in a single “*.csv” file. You can specify the file name and the
    saving directory and save the corresponding parameter file (*.txt) under the
    same directory using the same file name. The recall of CVS and parameter files
    is not supported.

    After selecting this type:
    – Press DataDepth to select “Displayed” or “Maximum”. After selecting
    “Maximum”, press Channel to select the desired channel (note that only
    channels currently enabled can be selected).
    – Press Para.Save to enable or disable the parameter save function.

    6. ARB – (DS2000A-S series with internal signal Source ONLY).
    The Edit function within the SourceSetup menu offers the facility to save
    in one further format of file: .ARB
    This file contains the Arbitrary Waveform data used when you select this type of waveform to be
    generated from the internal dual 25MHz source(s).

  • Rigol PC Software Versions

    Rigol PC Software Versions

    The table below lists the versions of Rigol PC software applications that are currently available for download from this Rigol-UK website.

    To find a download for your instrument…
    Go to the webpage for your instrument > Click on the ‘DOCUMENTS, SOFTWARE & VIDEOS’ tab (beneath the images).
    The downloads will be found in the ‘PC Software’ section.

    Rigol PC Software Version on Website
    PA1000 00.01.01
    RX1000 00.01.00.10
    S1210 EMI Pre-Compliance Test 00.05.00.07
    S1220 ASK/FSK Demodulation Analysis 00.01.00.02
    S1501 Ultra Load 00.01.00.08
    TX1000 00.01.00.02
    Ultra Acquire 00.01.07.01
    Ultra IQ Station 00.01.02.00
    Ultra Power Analyser 00.01.01.01
    Ultra Scope 00.01.01.07
    Ultra Scope (DS1000B series) 00.01.06.00
    Ultra Scope (DS1000D series) 00.01.08.00.00
    Ultra Scope (DS1000E series) 00.01.10.00.00
    Ultra Sensor 00.04.00.00
    Ultra Sigma 00.01.06.01
    Ultra Spectrum 00.01.00.27
    Ultra Station 00.01.04.04
    Ultra View 00.03.00.01.01
    Ultra Wave 00.01.02