sigrok - User contributions [en]

File:Envox eez bb3 enclosure prototype.jpg

2021-10-16T16:18:13Z

Apo: Apo uploaded a new version of File:Envox eez bb3 enclosure prototype.jpg

== Summary ==
This image is from [https://www.envox.hr/eez/eez-bench-box-3/introduction.html the creator's main website], which is itself under the [https://creativecommons.org/licenses/by-sa/4.0/ CC-BY-SA 4.0] license.
== Licensing ==
{{CC-BY-SA-4.0}}

Envox EEZ Bench Box 3

2021-10-16T16:17:26Z

Apo: More links

{{Infobox power supply
| image = [[File:Envox eez bb3 enclosure prototype.jpg|300px]]
| name = Envox EEZ Bench Box 3
| status = supported
| source_code_dir = scpi-pps
| channels = up to 6, depending on installed modules
| connectivity = SCPI over USB serial or TCP
| website = [https://www.envox.eu www.envox.eu]
}}

The ''Envox EEZ Bench Box 3'' (or "BB3") is an open hardware and open source platform design intended to support various modular test equipment modules, with an emphasis (at least, for now) on power supply use-cases.

At the time of writing, [https://www.crowdsupply.com/envox/eez-bb3 BB3 kits are available on Crowd Supply], and the project page also serves as a summary/overview of the features and design of this equipment.

== Hardware ==

Due to being an open hardware design, there is comprehensive documentation of all of the hardware on [https://www.envox.eu/eez-bb3/ the project website].

The system is designed as a modular platform which can support a number of different components of different kinds. Each of the modules might present a different sort of functionality as far as Sigrok is concerned. However, the power supply components behave similarly to those in the BB3's predecessor, the [[Envox EEZ H24005|EEZ H24005]], and so the power supply functionality can share a common Sigrok driver as long as it's designed to dynamically configure itself based on the device capabilities.

With the available modules specified at the time of writing, up to six independently-controllable power supply channels are possible if all three of the module slots are populated with dual power supply modules.

== Protocol ==

The EEZ BB3 has a SCPI-based protocol available either over USB Serial or over TCP/IP on the device's Ethernet port. The project website has [https://www.envox.eu/eez-bench-box-3/bb3-scpi-reference-manual/bb3-scpi-introduction/ a comprehensive guide to the SCPI implementation].

The SCPI protocol is compatible with that of the BB3's predecessor, the [[Envox EEZ H24005|EEZ H24005]], and so it's possible to share a protocol implementation across both platforms in the <code>scpi-pps</code> driver, as long as the implementation probes the device for how many channels it has and what their individual capabilities are.

There is [https://www.envox.eu/web-simulator/ an online simulator] which allows exercising both the touch user interface and the SCPI port. The simulator is an emscripten build of a variant of the real system firmware, so its behavior is pretty realistic aside from (of course) having just a software model of the power supply module behavior.

== Sigrok Support ==

The part of the sigrok <code>scpi-pps</code> driver which implements EEZ PSU support was provided by [[User:Apparentlymart]]. It was tested with a genuine [[Envox EEZ H24005|the EEZ H24005]], and written to current documentation and tested with simulated BB3 devices.

== See also ==

* [[Programmable power supply]]
* [[Power supply comparison]]

[[Category:Device]]
[[Category:Power supply]]
[[Category:Supported]]

Envox EEZ Bench Box 3

2021-10-16T13:37:14Z

Apo: Channel number, links

{{Infobox power supply
| image = [[File:Envox eez bb3 enclosure prototype.jpg|300px]]
| name = Envox EEZ Bench Box 3
| status = supported
| source_code_dir = scpi-pps
| channels = up to 6, depending on installed modules
| connectivity = SCPI over USB serial or TCP
| website = [https://www.envox.eu www.envox.eu]
}}

The ''Envox EEZ Bench Box 3'' (or "BB3") is an open hardware and open source platform design intended to support various modular test equipment modules, with an emphasis (at least, for now) on power supply use-cases.

At the time of writing, [https://www.crowdsupply.com/envox/eez-bb3 BB3 kits are available on Crowd Supply], and the project page also serves as a summary/overview of the features and design of this equipment.

== Hardware ==

Due to being an open hardware design, there is comprehensive documentation of all of the hardware on [https://www.envox.hr/eez/eez-bench-box-3/introduction.htmlthe project website].

The system is designed as a modular platform which can support a number of different components of different kinds. Each of the modules might present a different sort of functionality as far as Sigrok is concerned. However, the power supply components behave similarly to those in the BB3's predecessor, the [[Envox EEZ H24005|EEZ H24005]], and so the power supply functionality can share a common Sigrok driver as long as it's designed to dynamically configure itself based on the device capabilities.

With the available modules specified at the time of writing, up to six independently-controllable power supply channels are possible if all three of the module slots are populated with dual power supply modules.

== Protocol ==

The EEZ BB3 has a SCPI-based protocol available either over USB Serial or over TCP/IP on the device's Ethernet port. The project website has [https://www.envox.eu/eez-bench-box-3/bb3-scpi-reference-manual/bb3-scpi-introduction/ a comprehensive guide to the SCPI implementation].

The SCPI protocol is compatible with that of the BB3's predecessor, the [[Envox EEZ H24005|EEZ H24005]], and so it's possible to share a protocol implementation across both platforms in the <code>scpi-pps</code> driver, as long as the implementation probes the device for how many channels it has and what their individual capabilities are.

There is [https://www.envox.hr/eez-modular-firmware-simulator/ an online simulator] which allows exercising both the touch user interface and the SCPI port. The simulator is an emscripten build of a variant of the real system firmware, so its behavior is pretty realistic aside from (of course) having just a software model of the power supply module behavior.

== Sigrok Support ==

The part of the sigrok <code>scpi-pps</code> driver which implements EEZ PSU support was provided by [[User:Apparentlymart]]. It was tested with a genuine [[Envox EEZ H24005|the EEZ H24005]], and written to current documentation and tested with simulated BB3 devices.

== See also ==

* [[Programmable power supply]]
* [[Power supply comparison]]

[[Category:Device]]
[[Category:Power supply]]
[[Category:Supported]]

Getting started with a logic analyzer

2020-06-19T23:08:24Z

Apo: /* UART decoding */

After installing sigrok you can immediately start using sigrok through different frontends. Currently, those are [[PulseView]], [[sigrok-cli]] and [[sigrok-meter]].

== Capturing Signals ==

The sigrok suite needs some kind of hardware to interface to the signals you want to examine. While multimeters are certainly supported, we found that most people are currently using logic analyzers based on the [http://www.cypress.com/products/ez-usb-fx2lp Cypress FX2] microcontroller. With [http://sigrok.org/wiki/Fx2lafw fx2lafw], sigrok's open source runtime firmware, any device containing an FX2 can become a powerful streaming logic analyzer.

A variety of compatible low cost chinese made logic analyzer products are available for as little as $10. These can easily be found by searching for ''24MHz Logic Analyzer''.
There are also base-board Cypress FX2 boards such as the Lcsoft Mini Board, which can usually be found by searching for ''Cypress FX2 Board'' or similar.

In addition, a good set of [[Probe comparison|quality probe hooks]] is recommended. The [http://catalog.e-z-hook.com/item/test-hooks/e-z-micro-hooks-single-hook-style/xkm-1 E-Z-Hook XKM series] hooks are highly recommended, and are available from resellers such as DigiKey.

== Sigrok Signal Capture ==

For this example we are going to perform an analysis on a signal captured from a [https://www.maximintegrated.com/en/products/digital/real-time-clocks/DS1307.html Dallas DS1307 I²C Real-Time Clock] chip, which measures the time of day.

The [http://sigrok.org/gitweb/?p=sigrok-dumps.git;a=summary sigrok-dumps] repository contains a pre-made capture of DS1307 signalling.

We now start up the PulseView sigrok GUI, and open the file sigrok-dumps/i2c/rts_dallas_ds1307/rtc_ds1307_200khz.sr. We can see the captured signal, which features a conversation between a microcontroller and the DS1307, where the microcontroller repeatedly sets and queries the time of day:

[[File:Sigrok intro 1-loaded.png]]

== Sigrok Signal Decoding ==

Now we have the captured signal we can make use of sigrok's support for signal decoding. It allows signal decoding through the use of Python-language Protocol Decoder scripts. This makes it very quick and easy to build powerful decoders for all forms of digital signalling. We hope to be able to build a vibrant decoder library that will contain a large selection of supported chips and protocols.

Because we know that this is I²C signalling, we can add an I²C decoder from the Decoders menu:

[[File:Sigrok intro 2-add-decoder.png]]

Normally we would need to associate the logic probes with the logic analyzer inputs, but in this case, because the probes are already labelled SCL and SDA, PulseView can do this automatically. We can now see that sigrok has decoded the I²C messages and displays them with a blob diagram.

[[File:Sigrok intro 3-i2c-decode.png]]

This is already very useful, and a massive improvement over counting out pulses on an oscilloscope screen. However, sigrok allows us to go one step further with the use of so-called stacked decoders.

To add a stacked decoder we go to the Stack Decoder menu, and select the DS1307 decoder.

[[File:Sigrok intro 4-stack-decoder.png]]

With the stacked decoder added, we can now see that sigrok has decoded the meaning of the I²C commands, so that we don't need to bother searching the reference manual. In this view, we can see that the I²C packet was a command to read the date and time, which was 10.03.2013 23:35:30.

[[File:Sigrok intro 5-ds1307-decode.png]]

== Advanced analysis with sigrok-cli ==

sigrok-cli is a command line front-end for sigrok. Signal analysis via the command line is a powerful method of working, particularly when used with UNIX pipes. Downstream programs and scripts can be used to search, filter, condition or format the data in whatever way is desired.

[http://www.sigrok.org/blog/sigrok-unix-awesome-part-ii-audio This blog post] demonstrates how to extract a .WAV file from I²S digital sound signalling, for example.

In the case of our DS1307 example, we can also load the file with sigrok-cli. The data is displayed as bits by default:

[[File:Sigrok intro 1-sigrok-cli.png]]

Or we can display the signal as ASCII art:

[[File:Sigrok intro 2-sigrok-cli-ascii.png]]

Now we can decode the I²C packet data, just like in PulseView:

[[File:Sigrok intro 3-sigrok-cli-i2c-decode.png]]

And as before we can decode the DS1307 commands:

[[File:Sigrok intro 4-sigrok-cli-ds1307.png]]

Additionally, it is possible to run analyzers with a live capture such as in this example utilizing the fx2lafw driver and monitoring one side of a SPI transaction:

sigrok-cli --config samplerate=1M --driver=fx2lafw --continuous -P spi:mosi=1:clk=3:cs=4

When combined with tools such as grep, egrep, sed, perl, python, and many others, all kinds of powerful analysis becomes possible.

== More examples ==

=== UART decoding ===

This picture shows data from a UART where the signal is inverted and returns to zero after a short pulse instead of staying at the level for the entire duration of a symbol:

[[File:Uart-rz.png]]

To decode this, it is possible to configure the UART decoder to invert the RX channel and sample at the beginning of a pulse (here: 5%) instead of the middle:

sigrok-cli -d fx2lafw -c samplerate=250000 -t D0=r -P uart:rx=D0:baudrate=9600:invert_rx=yes:sample_point=5 -A uart=rx_data --continuous

With [https://gist.github.com/Cat-Ion/a7a843bd14e45bc814f6895506486994 some scripting] this can be used to continuously log the data on the bus:

[[File:Uart-scripted-logging.png]]

File:Uart-scripted-logging.png

2020-06-19T23:06:29Z

Apo: Apo uploaded a new version of File:Uart-scripted-logging.png

== Summary ==
Logging data from a UART with the help of a small awk script
== Licensing ==
{{PD}}

Getting started with a logic analyzer

2020-06-19T23:03:38Z

Apo: Added an example for logging a UART with some shell scripting

After installing sigrok you can immediately start using sigrok through different frontends. Currently, those are [[PulseView]], [[sigrok-cli]] and [[sigrok-meter]].

== Capturing Signals ==

The sigrok suite needs some kind of hardware to interface to the signals you want to examine. While multimeters are certainly supported, we found that most people are currently using logic analyzers based on the [http://www.cypress.com/products/ez-usb-fx2lp Cypress FX2] microcontroller. With [http://sigrok.org/wiki/Fx2lafw fx2lafw], sigrok's open source runtime firmware, any device containing an FX2 can become a powerful streaming logic analyzer.

A variety of compatible low cost chinese made logic analyzer products are available for as little as $10. These can easily be found by searching for ''24MHz Logic Analyzer''.
There are also base-board Cypress FX2 boards such as the Lcsoft Mini Board, which can usually be found by searching for ''Cypress FX2 Board'' or similar.

In addition, a good set of [[Probe comparison|quality probe hooks]] is recommended. The [http://catalog.e-z-hook.com/item/test-hooks/e-z-micro-hooks-single-hook-style/xkm-1 E-Z-Hook XKM series] hooks are highly recommended, and are available from resellers such as DigiKey.

== Sigrok Signal Capture ==

For this example we are going to perform an analysis on a signal captured from a [https://www.maximintegrated.com/en/products/digital/real-time-clocks/DS1307.html Dallas DS1307 I²C Real-Time Clock] chip, which measures the time of day.

The [http://sigrok.org/gitweb/?p=sigrok-dumps.git;a=summary sigrok-dumps] repository contains a pre-made capture of DS1307 signalling.

We now start up the PulseView sigrok GUI, and open the file sigrok-dumps/i2c/rts_dallas_ds1307/rtc_ds1307_200khz.sr. We can see the captured signal, which features a conversation between a microcontroller and the DS1307, where the microcontroller repeatedly sets and queries the time of day:

[[File:Sigrok intro 1-loaded.png]]

== Sigrok Signal Decoding ==

Now we have the captured signal we can make use of sigrok's support for signal decoding. It allows signal decoding through the use of Python-language Protocol Decoder scripts. This makes it very quick and easy to build powerful decoders for all forms of digital signalling. We hope to be able to build a vibrant decoder library that will contain a large selection of supported chips and protocols.

Because we know that this is I²C signalling, we can add an I²C decoder from the Decoders menu:

[[File:Sigrok intro 2-add-decoder.png]]

Normally we would need to associate the logic probes with the logic analyzer inputs, but in this case, because the probes are already labelled SCL and SDA, PulseView can do this automatically. We can now see that sigrok has decoded the I²C messages and displays them with a blob diagram.

[[File:Sigrok intro 3-i2c-decode.png]]

This is already very useful, and a massive improvement over counting out pulses on an oscilloscope screen. However, sigrok allows us to go one step further with the use of so-called stacked decoders.

To add a stacked decoder we go to the Stack Decoder menu, and select the DS1307 decoder.

[[File:Sigrok intro 4-stack-decoder.png]]

With the stacked decoder added, we can now see that sigrok has decoded the meaning of the I²C commands, so that we don't need to bother searching the reference manual. In this view, we can see that the I²C packet was a command to read the date and time, which was 10.03.2013 23:35:30.

[[File:Sigrok intro 5-ds1307-decode.png]]

== Advanced analysis with sigrok-cli ==

sigrok-cli is a command line front-end for sigrok. Signal analysis via the command line is a powerful method of working, particularly when used with UNIX pipes. Downstream programs and scripts can be used to search, filter, condition or format the data in whatever way is desired.

[http://www.sigrok.org/blog/sigrok-unix-awesome-part-ii-audio This blog post] demonstrates how to extract a .WAV file from I²S digital sound signalling, for example.

In the case of our DS1307 example, we can also load the file with sigrok-cli. The data is displayed as bits by default:

[[File:Sigrok intro 1-sigrok-cli.png]]

Or we can display the signal as ASCII art:

[[File:Sigrok intro 2-sigrok-cli-ascii.png]]

Now we can decode the I²C packet data, just like in PulseView:

[[File:Sigrok intro 3-sigrok-cli-i2c-decode.png]]

And as before we can decode the DS1307 commands:

[[File:Sigrok intro 4-sigrok-cli-ds1307.png]]

Additionally, it is possible to run analyzers with a live capture such as in this example utilizing the fx2lafw driver and monitoring one side of a SPI transaction:

sigrok-cli --config samplerate=1M --driver=fx2lafw --continuous -P spi:mosi=1:clk=3:cs=4

When combined with tools such as grep, egrep, sed, perl, python, and many others, all kinds of powerful analysis becomes possible.

== More examples ==

=== UART decoding ===

This picture shows data from a UART where the signal is inverted and returns to zero after a short pulse instead of staying at the level for the entire duration of a symbol:

[[File:Uart-rz.png]]

To decode this, it is possible to configure the UART decoder to invert the RX channel and sample at the beginning of a pulse (here: 5%) instead of the middle:

sigrok-cli -d fx2lafw -c samplerate=250000 -t D0=r -P uart:rx=D0:baudrate=9600:invert_rx=yes:sample_point=5 -A uart=rx_data --continuous

With [https://gist.github.com/Cat-Ion/a7a843bd14e45bc814f6895506486994|some scripting] this can be used to continuously log the data on the bus:

[[File:Uart-scripted-logging.png]]

File:Uart-scripted-logging.png

2020-06-19T23:02:56Z

Apo: Apo uploaded a new version of File:Uart-scripted-logging.png

== Summary ==
Logging data from a UART with the help of a small awk script
== Licensing ==
{{PD}}

File:Uart-scripted-logging.png

2020-06-19T23:01:27Z

Apo: Logging data from a UART with the help of a small awk script

== Summary ==
Logging data from a UART with the help of a small awk script
== Licensing ==
{{PD}}

File:Uart-rz.png

2020-06-19T22:50:09Z

Apo: An inverted UART signal that sends short pulses and returns to zero instead of staying at one level

== Summary ==
An inverted UART signal that sends short pulses and returns to zero instead of staying at one level
== Licensing ==
{{PD}}

Supported hardware

2018-12-30T11:41:22Z

Apo: /* Mixed-signal devices */ Rigol DS4000

sigrok is intended as a flexible, cross-platform, and '''hardware-independent''' software suite, i.e., it supports various devices from many different vendors.

Here is a list of currently supported devices (various stages of completeness) in the [http://sigrok.org/gitweb/?p=libsigrok.git;a=summary latest git version of libsigrok] (fewer devices might be supported in tarball releases) and devices we plan to support in the future.

The lists are sorted by category ([[File:Nuvola OK.png|16px]] supported: [[:Category:Supported|{{PAGESINCATEGORY:Supported|pages}}]], [[File:Nuvola Orange.png|16px]] in progress: [[:Category:In progress|{{PAGESINCATEGORY:In progress|pages}}]], [[File:Nuvola Red.png|16px]] planned: [[:Category:Planned|{{PAGESINCATEGORY:Planned|pages}}]]), and alphabetically within those categories.

== Logic analyzers ==

<gallery widths="100px" heights="100px">
File:ARMFLY MINI LOGIC.png|link=ARMFLY Mini-Logic|[[File:Nuvola OK.png|16px]] [[ARMFLY Mini-Logic]] (8ch, 24MHz)
File:ASIX SIGMA 2.png|link=ASIX SIGMA|[[File:Nuvola OK.png|16px]] [[ASIX SIGMA]] (16ch, 200MHz)
File:BeagleLogic.jpg|link=BeagleLogic|[[File:Nuvola OK.png|16px]] [[BeagleLogic]] (12(max 14)ch, 100MHz)
File:Braintechnology_usb_interface_v26.png|link=Braintechnology USB Interface V2.x|[[File:Nuvola OK.png|16px]] [[Braintechnology USB Interface V2.x]] (8/16ch, 24/12MHz)
File:Braintechnology_usb_lps.png|link=Braintechnology USB-LPS|[[File:Nuvola OK.png|16px]] [[Braintechnology USB-LPS]] (8/16ch, 24/12MHz)
File:Chronovu la8 front.png|link=ChronoVu LA8|[[File:Nuvola OK.png|16px]] [[ChronoVu LA8]] (8ch, 100MHz)
File:Chronovu la16.png|link=ChronoVu LA16|[[File:Nuvola OK.png|16px]] [[ChronoVu LA16]] (16ch, 200MHz)
File:Cwav_usbee_sx.png|link=CWAV USBee SX|[[File:Nuvola OK.png|16px]] [[CWAV USBee SX]] (8ch, 24MHz)
File:Buspirate_v3.png|link=Dangerous Prototypes Buspirate|[[File:Nuvola OK.png|16px]] [[Dangerous Prototypes Buspirate]] (5ch, 1MHz)
File:Dangerous prototypes irtoy mugshot.png|link=Dangerous Prototypes USB IR Toy|[[File:Nuvola OK.png|16px]] [[Dangerous Prototypes USB IR Toy]] (1ch, 10kHz)
File:DSLogic.png|link=DreamSourceLab DSLogic|[[File:Nuvola OK.png|16px]] [[DreamSourceLab DSLogic]] (16ch, 400MHz)
File:DSLogic.png|link=DreamSourceLab DSLogic Basic|[[File:Nuvola OK.png|16px]] [[DreamSourceLab DSLogic Basic]] (16ch, 100MHz)
File:DSLogic.png|link=DreamSourceLab DSLogic Plus|[[File:Nuvola OK.png|16px]] [[DreamSourceLab DSLogic Plus]] (16ch, 400MHz)
File:DSLogic.png|link=DreamSourceLab DSLogic Pro|[[File:Nuvola OK.png|16px]] [[DreamSourceLab DSLogic Pro]] (16ch, 400MHz)
File:Eeelec xla esla100.png|link=EE Electronics ESLA100|[[File:Nuvola OK.png|16px]] [[EE Electronics ESLA100]] (8ch, 24MHz)
File:Chronovu la8 ftdi ft245rl.jpg|link=FTDI-LA|[[File:Nuvola OK.png|16px]] [[FTDI-LA]] (8ch, ~10MHz)
File:Hantek 4032l mugshot.png|link=Hantek 4032L|[[File:Nuvola OK.png|16px]] [[Hantek 4032L]] (32ch, 400MHz)
File:Hantek 6022be mugshot.png|link=Hantek 6022BL|[[File:Nuvola OK.png|16px]] [[Hantek 6022BL]] (8ch, 24MHz)
File:Hobby components hctest0006 mugshot.png|link=Hobby Components HCTEST0006|[[File:Nuvola OK.png|16px]] [[Hobby Components HCTEST0006]] (8ch, 24MHz)
File:Ikalogic_scanalogic2.png|link=IKALOGIC Scanalogic-2|[[File:Nuvola OK.png|16px]] [[IKALOGIC Scanalogic-2]] (4ch, 20MHz)
File:Ikalogic scanaplus mugshot.png|link=IKALOGIC ScanaPLUS|[[File:Nuvola OK.png|16px]] [[IKALOGIC ScanaPLUS]] (9ch, 100MHz)
File:Kingst kqs3506 la16100.png|link=KingST KQS3506-LA16100|[[File:Nuvola OK.png|16px]] [[KingST KQS3506-LA16100]] (16ch, 100/50/32/16MHz @ 3/6/9/16ch)
File:Lcsoft-miniboard-front.png|link=Lcsoft Mini Board|[[File:Nuvola OK.png|16px]] [[Lcsoft Mini Board]] (8/16ch, 24/12MHz)
File:Lecroy logicstudio16 mugshot.png|link=LeCroy LogicStudio|[[File:Nuvola OK.png|16px]] [[LeCroy LogicStudio]] (8/16ch, 1GHz/500MHz)
File:logic-shrimp-front.png|link=Logic Shrimp|[[File:Nuvola OK.png|16px]] [[Logic Shrimp]] (4ch, 20MHz)
File:Mcu123 saleae logic clone.png|link=MCU123 Saleae Logic clone|[[File:Nuvola OK.png|16px]] [[MCU123 Saleae Logic clone]] (8ch, 24MHz)
File:Meilhaus logian 16l mugshot.png|link=Meilhaus Logian-16L|[[File:Nuvola OK.png|16px]] [[Meilhaus Logian-16L]] (16ch, 200MHz)
File:Microchip_pickit2.png|link=Microchip PICkit2|[[File:Nuvola OK.png|16px]] [[Microchip PICkit2]] (3ch, 1MHz)
File:Usbee_ax_clone_front.png|link=MCU123 USBee AX Pro clone|[[File:Nuvola OK.png|16px]] [[MCU123 USBee AX Pro clone]] (8ch, 24MHz)
File:Mcupro_Logic16_overview.png|link=mcupro Logic16 clone|[[File:Nuvola OK.png|16px]] [[mcupro Logic16 clone]] (16ch, 100MHz)
File:Openbench logic sniffer front.png|link=Openbench Logic Sniffer|[[File:Nuvola OK.png|16px]] [[Openbench Logic Sniffer]] (32ch, 100MHz)
File:Prist akip 9101 mugshot.png|link=Prist AKIP-9101|[[File:Nuvola OK.png|16px]] [[Prist AKIP-9101]] (16ch, 200MHz)
File:Robomotic buglogic3.png|link=Robomotic BugLogic 3|[[File:Nuvola OK.png|16px]] [[Robomotic BugLogic 3]] (8ch, 24MHz)
File:Robomotic_minilogic.png|link=Robomotic MiniLogic|[[File:Nuvola OK.png|16px]] [[Robomotic MiniLogic]] (8ch, 24MHz)
File:Saleae Logic.png|link=Saleae Logic|[[File:Nuvola OK.png|16px]] [[Saleae Logic]] (8ch, 24MHz)
File:Saleae_Logic16_bottom.png|link=Saleae Logic16|[[File:Nuvola OK.png|16px]] [[Saleae Logic16]] (16ch, 100/50/32/16MHz @ 3/6/9/16ch)
File:Saanlima Pipistrello-OLS.png|link=Saanlima Pipistrello OLS|[[File:Nuvola OK.png|16px]] [[Saanlima Pipistrello OLS]] (32ch, 100MHz)
File:Sysclk lwla1016.png|link=Sysclk LWLA1016|[[File:Nuvola OK.png|16px]] [[Sysclk LWLA1016]] (16ch, 100MHz)
File:Sysclk lwla1034 mugshot.png|link=Sysclk LWLA1034|[[File:Nuvola OK.png|16px]] [[Sysclk LWLA1034]] (34ch, 125MHz)
File:VKTECH_thumb.jpg|link=VKTECH_saleae_clone|[[File:Nuvola OK.png|16px]] [[VKTECH_saleae_clone|VKTECH saleae clone]] (8ch, 24MHz)
File:Wayengineer saleae16.png|link=WayEngineer Saleae16|[[File:Nuvola OK.png|16px]] [[WayEngineer Saleae16]] (16ch, 100/50/32/16MHz @ 3/6/9/16ch)
File:Zeroplus Logic Cube.png|link=ZEROPLUS Logic Cube LAP-C(16032)|[[File:Nuvola OK.png|16px]] [[ZEROPLUS Logic Cube LAP-C(16032)]] (16ch, 100MHz)
File:Zeroplus Logic Cube.png|link=ZEROPLUS Logic Cube LAP-C(322000)|[[File:Nuvola OK.png|16px]] [[ZEROPLUS Logic Cube LAP-C(322000)]] (32ch, 200MHz)
File:Zeroplus_lap-16128u.png|link=ZEROPLUS LAP-16128U|[[File:Nuvola OK.png|16px]] [[ZEROPLUS LAP-16128U]] (16ch, 200MHz)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Acute_pkla1216.png|link=Acute PKLA-1216|[[File:Nuvola Red.png|16px]] [[Acute PKLA-1216]] (16ch, 200MHz)
File:ASIX Omega.png|link=ASIX OMEGA|[[File:Nuvola Red.png|16px]] [[ASIX OMEGA]] (16ch, 400MHz)
File:Hsa-logic.png|link=HSA Logic|[[File:Nuvola Red.png|16px]] [[HSA Logic]] (8ch, 6.25MHz)
File:Ideofy_la_08.png|link=Ideofy LA-08|[[File:Nuvola Red.png|16px]] [[Ideofy LA-08]] (8ch, 96/60/30MHz @ 2/4/8ch)
File:Intronix Logicport.png|link=Intronix Logicport LA1034|[[File:Nuvola Red.png|16px]] [[Intronix Logicport LA1034]] (34ch, 500MHz)
File:Kingst la2016 mugshot.png|link=Kingst LA2016|[[File:Nuvola Red.png|16px]] [[Kingst LA2016]] (16ch, 200MHz)
File:Sigrok_logo_no_text_transparent_512.png|link=Link Instruments LA-5580|[[File:Nuvola Red.png|16px]] [[Link Instruments LA-5580]] (80ch, 500MHz)
File:Minila parport.png|link=MiniLA|[[File:Nuvola Red.png|16px]] [[MiniLA]] (32ch, 100MHz)
File:Minila_mockup.png|link=MiniLA Mockup|[[File:Nuvola Red.png|16px]] [[MiniLA Mockup]] (32ch, 100MHz)
File:Noname_la16_mugshot.png|link=Noname LA16|[[File:Nuvola Red.png|16px]] [[Noname LA16]] (16ch, 100MHz)
File:Noname xl logic16 100m mugshot.png|link=Noname XL-LOGIC16-100M|[[File:Nuvola Red.png|16px]] [[Noname XL-LOGIC16-100M]] (16ch, 100/50/32/16MHz @ 3/6/9/16ch)
File:Rockylogic_ant8.png|link=RockyLogic Ant8|[[File:Nuvola Red.png|16px]] [[RockyLogic Ant8]] (8ch, 500MHz)
File:RockyLogic Ant18e.png|link=RockyLogic Ant18e|[[File:Nuvola Red.png|16px]] [[RockyLogic Ant18e]] (8ch, 1GHz)
File:Sysclk lwla2034 mugshot.png|link=Sysclk LWLA2034|[[File:Nuvola Red.png|16px]] [[Sysclk LWLA2034]] (34ch, 200MHz)
File:Sysclk sla5032 mugshot.png|link=Sysclk SLA5032|[[File:Nuvola Red.png|16px]] [[Sysclk SLA5032]] (32ch, 500MHz)
File:Techtools_digiview_dv1-100.png|link=TechTools DigiView DV1-100|[[File:Nuvola Red.png|16px]] [[TechTools DigiView DV1-100]] (18ch, 100MHz)
File:Tektronix TLA5204 1000.png|link=Tektronix TLA520X|[[File:Nuvola Red.png|16px]] [[Tektronix TLA520X]] (128ch, 2Ghz)
File:Xmos xtag2.png|link=XMOS XTAG-2|[[File:Nuvola Red.png|16px]] [[XMOS XTAG-2]] (?ch, 50MHz)
File:Zlg_la1032.png|link=ZLG LA1032|[[File:Nuvola Red.png|16px]] [[ZLG LA1032]] (32ch, 100MHz)
</gallery>

== Mixed-signal devices ==

<gallery widths=105px heights=105px>
File:Armfly_ax_pro.png|link=ARMFLY AX-Pro|[[File:Nuvola OK.png|16px]] [[ARMFLY AX-Pro]] (8ch, 24MHz; 1ch analog, 3MHz BW)
File:Sysclk ax pro mugshot.png|link=Sysclk AX-Pro|[[File:Nuvola OK.png|16px]] [[Sysclk AX-Pro]] (8ch, 24MHz; 1ch analog, 3MHz BW)
File:Esla201a.png|link=EE Electronics ESLA201A|[[File:Nuvola OK.png|16px]] [[EE Electronics ESLA201A]] (8ch, 24MHz; 1ch analog, 3MHz BW)
File:Ht usbee axpro v5 mugshot.png|link=HT USBee-AxPro|[[File:Nuvola OK.png|16px]] [[HT USBee-AxPro]] (8ch, 24MHz; 1ch analog, 3MHz BW)
File:LeCroy_WaveSurfer_24Xs-A_front.png|link=LeCroy oscilloscope series|[[File:Nuvola OK.png|16px]] [[LeCroy oscilloscope series]] (various)
File:Noname lht00su1 mugshot.png|link=Noname LHT00SU1|[[File:Nuvola OK.png|16px]] [[Noname LHT00SU1]] (8ch, 24MHz; 1ch analog, 3MHz BW)
File:Rigol DS1052E.png|link=Rigol DS1000 series|[[File:Nuvola OK.png|16px]] [[Rigol DS1000 series|Rigol DS1000D series]] (16ch, 2ch analog, 50-150MHz BW)
File:Sigrok_logo_no_text_transparent_512.png|link=Rigol DS4000 series|[[File:Nuvola OK.png|16px]] [[Rigol DS4000 series]] (0/16ch , 2-4ch analog, 2-4GS/s, 100MHz/200MHz/350MHz/500MHz BW)
File:Rigol_VS5202D.png|link=Rigol VS5000 series|[[File:Nuvola OK.png|16px]] [[Rigol VS5000 series|Rigol VS5000D series]] (16ch, 2ch analog, 20-200MHz BW)
File:Sigrok_logo_no_text_transparent_512.png|link=Rohde&Schwarz HMO3000 series|[[File:Nuvola OK.png|16px]] [[Rohde&Schwarz HMO 3000 series]] (16ch, 2/4ch analog, 4GS/s, 300-500MHz BW)
File:Saleae Logic Pro 16 bottom.jpg|link=Saleae Logic Pro 16|[[File:Nuvola OK.png|16px]] [[Saleae Logic Pro 16]] (4/16ch, 500/100MHz; 16ch analog, 50MSa/s, 5MHz BW)
File:Siglent_SDS1202X-E_front.png|link=Siglent SDS1000X series|[[File:Nuvola OK.png|16px]] [[Siglent SDS1000X series]] (16ch, 2ch analog, 1GSa/s, 200/100MHz BW)
File:sds2304x-mugshot.png|link=Siglent SDS2000X series|[[File:Nuvola OK.png|16px]] [[Siglent SDS2000X series]] (16ch, 2/4ch analog, 2GSa/s, 300/200/150/100/70MHz BW)
File:Yokogawa DLM2000 front.png|link=Yokogawa DLM2000 series|[[File:Nuvola OK.png|16px]] [[Yokogawa DLM2000 series]] (8ch, 2/4ch analog, 2.5GSa/s, 200/350/500MHz BW)
File:Xzl studio ax mugshot.png|link=XZL_Studio AX|[[File:Nuvola OK.png|16px]] [[XZL_Studio AX]] (8ch, 24MHz; 1ch analog, 3MHz BW)
File:Xzl studio-dx mugshot.png|link=XZL_Studio DX|[[File:Nuvola OK.png|16px]] [[XZL_Studio DX]] (16ch, 24MHz; 2ch analog), Analog not supported
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Agilent_MSO7104A.png|link=Agilent MSO7104A|[[File:Nuvola Red.png|16px]] [[Agilent MSO7104A]] (16ch, ?; 4ch analog, 2GSa/s, 1GHz BW)
File:BitScope BS10.png|link=BitScope BS10|[[File:Nuvola Red.png|16px]] [[BitScope BS10]] (8ch, 40MHz; 2ch analog, 20MSa/s, ? BW)
File:Digilent_analog_discovery.png|link=Digilent Analog Discovery|[[File:Nuvola Red.png|16px]] [[Digilent Analog Discovery]] (16ch, 100MHz; 2ch analog, 100MSa/s, 5MHz BW)
File:Hantek_1008C.png|link=Hantek 1008C|[[File:Nuvola Red.png|16px]] [[Hantek 1008C]] (8ch)
File:Ht usbee dxpro mugshot.png|link=HT USBee-DxPro|[[File:Nuvola Red.png|16px]] [[HT USBee-DxPro]] (16ch, 24MHz; 2ch analog)
File:Lab nation smartscope mugshot.png|link=LabNation SmartScope|[[File:Nuvola Red.png|16px]] [[LabNation SmartScope]] (8ch, 100MHz; 2ch analog, 100MSa/s, 45MHz BW)
File:Link Instruments MSO-19 front.png|link=Link Instruments MSO-19|[[File:Nuvola Red.png|16px]] [[Link Instruments MSO-19]] (8ch, 200MHz; 1ch analog, 200MSa/s, 60MHz BW)
File:Meilhaus_mephisto_scope1.png|link=Meilhaus MEphisto Scope1|[[File:Nuvola Red.png|16px]] [[Meilhaus MEphisto Scope1]] (16ch, 100kHz; 2ch analog, 1MSa/s, 500kHz BW)
File:Polabs_poscope_basic2.png|link=PoLabs PoScope Basic2|[[File:Nuvola Red.png|16px]] [[PoLabs PoScope Basic2]] (16ch, 8MHz; 2ch analog, 200kSa/s, ? BW)
File:QuantAsylum QA100.png|link=QuantAsylum QA100|[[File:Nuvola Red.png|16px]] [[QuantAsylum QA100]] (12ch; 2ch analog)
File:Saleae_Logic8_case_bottom.jpg|link=Saleae Logic8|[[File:Nuvola Red.png|16px]] [[Saleae Logic8]] (3/6/7/8ch, 100/50/40/25MHz; 8ch analog, 10MSa/s, 1MHz BW)
File:Saleae_logic_pro_8-bottom.png|link=Saleae Logic Pro 8|[[File:Nuvola Red.png|16px]] [[Saleae Logic Pro 8]] (4/8ch, 500/100MHz; 8ch analog, 50MSa/s, 5MHz BW)
File:Picoscope 3205D MSO fp.jpg|link=Pico Technology PicoScope 3205D MSO|[[File:Nuvola Red.png|16px]] [[Pico Technology PicoScope 3205D MSO]] (16ch, 100MHz; 2ch analog, 1/0.5GS/s, 100MHz BW)
File:DSO3254A.jpg|link=Hantek DSO3254A|[[File:Nuvola Red.png|16px]] [[Hantek DSO3254A]] (16ch, 250MHz; 4ch analog, 1GS/s, 250MHz BW; 1 ch func/arb generator, 200MHz)

</gallery>

== Oscilloscopes ==

<gallery widths=100px heights=100px>
File:Agilent DSO1014A.png|link=Agilent DSO1000 series|[[File:Nuvola OK.png|16px]] [[Agilent DSO1000 series]] (2-4ch, 2GS/s, 60-200MHz BW)
File:Fluke_Scopemeter_199B.png|link=Fluke ScopeMeter 199B|[[File:Nuvola OK.png|16px]] [[Fluke ScopeMeter 199B]] (2ch, 2.5GS/s, 200MHz BW)
File:Voltcraft dso-6060c mugshot.png|link=GW Instek GDS-800 series|[[File:Nuvola OK.png|16px]] [[GW Instek GDS-800 series]] (2ch, 25GS/s, 60-250MHz BW)
File:Hameg HMO2024.png|link=Hameg HMO compact series|[[File:Nuvola OK.png|16px]] [[Hameg HMO compact series]] (2-4ch, 2GS/s, 70-200MHz BW)
File:Hantek 6022be mugshot.png|link=Hantek 6022BE|[[File:Nuvola OK.png|16px]] [[Hantek 6022BE]] (2ch, 48MS/s, 20MHz BW)
File:Hantek DSO-2090.png|link=Hantek DSO-2090|[[File:Nuvola OK.png|16px]] [[Hantek DSO-2090]] (2ch, 100MS/s, 40MHz)
File:Hung chang dso 2100 mugshot.png|link=Hung-Chang_DSO-2100|[[File:Nuvola OK.png|16px]] [[Hung-Chang DSO-2100]] (2ch, 100MS/s, 30MHz BW)
File:Rigol DS1052E.png|link=Rigol DS1000 series|[[File:Nuvola OK.png|16px]] [[Rigol DS1000 series|Rigol DS1000E series]] (2ch, 1GS/s, 50-150MHz BW)
File:Rigol DS1074Z front.png|link=Rigol DS1000Z series|[[File:Nuvola OK.png|16px]] [[Rigol DS1000Z series|Rigol DS1000Z series]] (4ch, 1GS/s, 50-100MHz BW)
File:Rigol-ds2072 mugshot.png|link=Rigol DS2000 series|[[File:Nuvola OK.png|16px]] [[Rigol DS2000 series]] (2ch, 2GS/s, 70-200MHz BW)
File:Rigol_VS5202D.png|link=Rigol VS5000 series|[[File:Nuvola OK.png|16px]] [[Rigol VS5000 series]] (2ch, 20-200MHz BW)
File:Rocktech bm102 mugshot.png|link=Rocktech BM102|[[File:Nuvola OK.png|16px]] [[Rocktech BM102]] (2ch, 50MS/s, 20MHz BW)
File:RS HMO1002.png|link=Rohde&Schwarz HMO 1002 series|[[File:Nuvola OK.png|16px]] [[Rohde&Schwarz HMO 1002 series]] (2ch, 1GS/s, 50-100MHz BW)
File:Dds120 mugshot.png|link=SainSmart DDS120|[[File:Nuvola OK.png|16px]] [[SainSmart DDS120]] (2ch, 50MS/s, 20MHz BW)
File:YiXingDianZi-MDSO.png|link=YiXingDianZi MDSO|[[File:Nuvola OK.png|16px]] [[YiXingDianZi MDSO]] (2ch, 48MS/s, 20MHz BW)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Fluke scopemeter123.png|link=Fluke ScopeMeter 123|[[File:Nuvola Red.png|16px]] [[Fluke ScopeMeter 123]] (2ch, 25MS/s, 20MHz BW)
File:Focussz_fosc21_mugshot.png|link=Focussz Fosc21|[[File:Nuvola Red.png|16px]] [[Focussz Fosc21]] (2ch, 8kS/s, 3kHz BW)
File:Sigrok_logo_no_text_transparent_512.png|link=GW Instek GDS-2000 series|[[File:Nuvola Red.png|16px]] [[GW Instek GDS-2000 series]] (2ch, 1GS/s, 60MHz/100MHz/200MHz BW)
File:Hantek front.jpg|link=Hantek 6052BE|[[File:Nuvola Red.png|16px]] [[Hantek 6052BE]] (2ch, 150MS/s, 50MHz BW)
File:Hantek 6254bd mugshot.png|link=Hantek 6254BD|[[File:Nuvola Red.png|16px]] [[Hantek 6254BD]] (4ch, 1GS/s, 250MHz BW)
File:Sigrok_logo_no_text_transparent_512.png|link=Hantek DSO-1200|[[File:Nuvola Red.png|16px]] [[Hantek DSO-1200]] (2ch, 500MS/s, 200MHz BW)
File:Hantek_DSO_2100_usb.jpg|link=Hantek DSO-2100|[[File:Nuvola Red.png|16px]] [[Hantek DSO-2100]] (2ch, 100M/s, 30MHz BW)
File:Hantek_PSO2020_0.JPG|link=Hantek PSO2020|[[File:Nuvola Red.png|16px]] [[Hantek PSO2020]] (1ch, 96MS/s, 20MHz BW)
File:Hantek dso2250 mugshot.png|link=Hantek DSO-2250|[[File:Nuvola Red.png|16px]] [[Hantek DSO-2250]] (2ch, 250MS/s, 100MHz BW)
File:Hantek dso-5200a device front.png|link=Hantek DSO-5200A|[[File:Nuvola Red.png|16px]] [[Hantek DSO-5200A]] (2ch, 250MS/s, 200MHz BW)
File:Hantek iDSO1070A.JPG|link=Hantek iDSO1070|[[File:Nuvola Red.png|16px]] [[Hantek iDSO1070]] (2ch, 250MS/s, 70MHz BW)
File:Sigrok_logo_no_text_transparent_512.png|link=Hantek iDSO1070A|[[File:Nuvola Red.png|16px]] [[Hantek iDSO1070A]] (2ch, 125MS/s, 70MHz BW)
File:Usbduxfast.png|link=Incite Technology USB-DUXfast|[[File:Nuvola Red.png|16px]] [[Incite Technology USB-DUXfast]] (16ch, 3MHz, ? BW)
File:OsciPrime.png|link=Nexus-Computing OsciPrime|[[File:Nuvola Red.png|16px]] [[Nexus-Computing OsciPrime]] (2ch, ?MS/s, 3.3MHz-8MHz BW)
File:Sigrok_logo_no_text_transparent_512.png|link=Owon SDS series|[[File:Nuvola Red.png|16px]] [[Owon SDS series]] (2ch, 0.5-3.2GS/s, 60-300MHz BW)
File:Picoscope 2203.png|link=Pico Technology PicoScope 2203|[[File:Nuvola Red.png|16px]] [[Pico Technology PicoScope 2203]] (40/20MS/s, 5MHz BW)
File:PicoScope_2205.png|link=Pico Technology PicoScope 2205|[[File:Nuvola Red.png|16px]] [[Pico Technology PicoScope 2205]] (200/100MS/s, 25MHz BW)
File:Picoscope 3206.png|link=Pico Technology PicoScope 3206|[[File:Nuvola Red.png|16px]] [[Pico Technology PicoScope 3206]] (200/100MS/s, 200MHz BW)
File:Picoscope 5203.png|link=Pico Technology PicoScope 5203|[[File:Nuvola Red.png|16px]] [[Pico Technology PicoScope 5203]] (1/0.5GS/s, 250MHz BW)
File:Sainsmart dds140 mugshot.png|link=SainSmart DDS140|[[File:Nuvola Red.png|16px]] [[SainSmart DDS140]] (2ch, 200MS/s, 40MHz BW)
File:Tektronix tds2024b mugshot.png|link=Tektronix TDS2000B series|[[File:Nuvola Red.png|16px]] [[Tektronix TDS2000B series]] (2-4ch, 1-2GS/s, 60-200MHz BW)
File:UNI-T UTD2042C.png|link=UNI-T UTD2042C|[[File:Nuvola Red.png|16px]] [[UNI-T UTD2042C]] (2ch, 500MS/s, 40MHz BW)
File:Velleman PCSU1000.png|link=Velleman PCSU1000|[[File:Nuvola Red.png|16px]] [[Velleman PCSU1000]] (2ch, 1GS/s, 50MHz BW)
File:VellemanWFS210.png|link=Velleman WFS210|[[File:Nuvola Red.png|16px]] [[Velleman WFS210]] (2ch, 10MS/s, ?? MHz BW)
File:Voltcraft dso-220 usb.png|link=Voltcraft DSO-220|[[File:Nuvola Red.png|16px]] [[Voltcraft DSO-220]] (2ch, 60MS/s, 20MHz BW)
File:Voltcraft DSO-3062C.png|link=Voltcraft DSO-3062C|[[File:Nuvola Red.png|16px]] [[Voltcraft DSO-3062C]] (2ch, 1GS/s, 60MHz BW)
File:Instrustar-IDS205A CaseFront.jpg|link=Instrustar ISDS205A|[[File:Nuvola Red.png|16px]] [[Instrustar_ISDS205A]] (2ch, 48MS/s, 20MHz BW)
</gallery>

== Multimeters ==

<gallery widths="100px" heights="100px">
File:Agilent_34405A.png|link=Agilent_34405A|[[file:Nuvola OK.png|16px]] [[Agilent 34405A]] (120000 counts, USB TMC)
File:Agilent U1232A.png|link=Agilent U12xxx series|[[File:Nuvola OK.png|16px]] [[Agilent U12xxx series]] (USB/Bluetooth)
File:Bbc gm m2110 mugshot.png|link=BBC Goertz Metrawatt M2110|[[File:Nuvola OK.png|16px]] [[BBC Goertz Metrawatt M2110]] (30000 counts, RS232)
File:Brymen BM257.png|link=Brymen BM257|[[File:Nuvola OK.png|16px]] [[Brymen BM257]] (6000 counts, RS232/USB)
File:Brymen bm257s mugshot.png|link=Brymen BM257s|[[File:Nuvola OK.png|16px]] [[Brymen BM257s]] (6000 counts, RS232/USB)
File:Bm_857_mugshot_500000.png|link=Brymen BM857|[[File:Nuvola OK.png|16px]] [[Brymen BM857]] (50000 counts, RS232)
File:Bm869_mugshot.png|link=Brymen BM869|[[File:Nuvola OK.png|16px]] [[Brymen BM869]] (50000 counts, USB)
File:Digitek_dt4000zc_device_front.png|link=Digitek DT4000ZC|[[File:Nuvola OK.png|16px]] [[Digitek DT4000ZC]] (4000 counts, RS232)
File:Eevblog 121gw mugshot.png|link=EEVBlog 121GW|[[File:Nuvola OK.png|16px]] [[EEVBlog 121GW]] (50000 counts, BLE, SD)
File:Fluke 187.png|link=Fluke 187/189|[[File:Nuvola OK.png|16px]] [[Fluke 187/189]] (50000 counts, RS232)
File:Fluke 287.png|link=Fluke 287/289|[[File:Nuvola OK.png|16px]] [[Fluke 287/289]] (50000 counts, RS232)
File:Fluke_45_mugshot.png|link=Fluke 45|[[File:Nuvola OK.png|16px]] [[Fluke 45]] (100000 counts, GPIB/RS232)
File:Gmc metrahit 14a logo.png|link=Gossen Metrawatt Metrahit 14A|[[File:Nuvola OK.png|16px]] [[Gossen Metrawatt Metrahit 14A]] (3100 counts, RS232)
File:Gossen Metrawatt Metrahit 16I small.png|link=Gossen Metrawatt Metrahit 16I|[[File:Nuvola OK.png|16px]] [[Gossen Metrawatt Metrahit 16I]] (3100 counts, RS232)
File:Gossen Metrawatt Metrahit 18S small.png|link=Gossen Metrawatt Metrahit 18S|[[File:Nuvola OK.png|16px]] [[Gossen Metrawatt Metrahit 18S]] (31000 counts, RS232)
File:Gossen Metrawatt Metrahit 25S Logo.png|link=Gossen Metrawatt Metrahit 25S|[[File:Nuvola OK.png|16px]] [[Gossen Metrawatt Metrahit 25S]] (31000 counts, RS232/USB)
File:Gmc metrahit 29s logo.png|link=Gossen Metrawatt Metrahit 29S|[[File:Nuvola OK.png|16px]] [[Gossen Metrawatt Metrahit 29S]] (310000 counts, RS232/USB)
File:Gmc kmm2002 logo.png|link=Gossen Metrawatt T-Com KMM2002|[[File:Nuvola OK.png|16px]] [[Gossen Metrawatt T-Com KMM2002]] (3100 counts, RS232)
File:HP_3457a_sigrok_teaser.png|link=HP 3457A|[[File:Nuvola OK.png|16px]] [[HP 3457A]] (7.5 digits, GPIB)
File:Hp3478a mugshot.png|link=HP 3478A|[[File:Nuvola OK.png|16px]] [[HP 3478A]] (5.5 digits, GPIB)
File:HT410 logo.png|link=HT Instruments HT410|[[File:Nuvola OK.png|16px]] [[HT Instruments HT410]] (3100 counts, RS232)
File:100px_Idm103n.png|link=ISO-TECH IDM103N|[[File:Nuvola OK.png|16px]] [[ISO-TECH IDM103N]] (4000 counts, RS232)
File:Mastech mas345 device front.png|link=MASTECH MAS345|[[File:Nuvola OK.png|16px]] [[MASTECH MAS345]] (4000 counts, RS232)
File:Mastech ms8250b mugshot.png|link=MASTECH MS8250B|[[File:Nuvola OK.png|16px]] [[MASTECH MS8250B]] (4000 counts, USB)
File:Mastech ms8250d mugshot.png|link=MASTECH MS8250D|[[File:Nuvola OK.png|16px]] [[MASTECH MS8250D]] (6600 counts, USB)
File:Metex m4650cr mugshot.png|link=Metex M-4650CR|[[File:Nuvola OK.png|16px]] [[Metex M-4650CR]] (20000 counts, RS232)
File:Metex_me-31.png|link=Metex ME-31|[[File:Nuvola OK.png|16px]] [[Metex ME-31]] (4000 counts, RS232)
File:Metrix mx56c.png|link=Metrix MX56C|[[File:Nuvola OK.png|16px]] [[Metrix MX56C]] (50000 counts, RS232)
File:Norma dm950.png|link=Norma DM950|[[File:Nuvola OK.png|16px]] [[Norma DM950]] (21000 counts, RS232)
File:Pce-pce-dm32.png|link=PCE PCE-DM32|[[File:Nuvola OK.png|16px]] [[PCE PCE-DM32]] (4000 counts, RS232)
File:Peaktech 3330 mugshot.png|link=PeakTech 3330|[[File:Nuvola OK.png|16px]] [[PeakTech 3330]] (4000 counts, RS232/USB)
File:Metex_me-31.png|link=PeakTech 3410|[[File:Nuvola OK.png|16px]] [[PeakTech 3410]] (4000 counts, RS232)
File:Peaktech3415_top.png|link=PeakTech 3415|[[File:Nuvola OK.png|16px]] [[PeakTech 3415]] (6000 counts, USB)
File:Peaktech 4370 device front.png|link=PeakTech 4370|[[File:Nuvola OK.png|16px]] [[PeakTech 4370]] (2000 counts, RS232)
File:Peaktech 4390a metex m-3860m mugshot.png|link=PeakTech 4390A|[[File:Nuvola OK.png|16px]] [[PeakTech 4390A]] (4000 counts, RS232)
File:Rs_22_168_mugshot.png|link=RadioShack 22-168|[[File:Nuvola OK.png|16px]] [[RadioShack 22-168]] (2000 counts, RS232)
File:Rs_22-805_front.png|link=RadioShack 22-805|[[File:Nuvola OK.png|16px]] [[RadioShack 22-805]] (4000 counts, RS232)
File:radioshack_22_812_front.png|link=RadioShack 22-812|[[File:Nuvola OK.png|16px]] [[RadioShack 22-812]] (4000 counts, RS232)
File:siemens_b1026_logo.png|link=Siemens B1026|[[File:Nuvola OK.png|16px]] [[Siemens B1026]] (21000 counts, RS232)
File:Siemens B1105 small.png|link=Siemens B1105|[[File:Nuvola OK.png|16px]] [[Siemens B1105]] (310000 counts, RS232/USB)
File:Sparkfun 70c mugshot.png|link=SparkFun 70C|[[File:Nuvola OK.png|16px]] [[SparkFun 70C]] (6000 counts, USB)
File:Tecpel dmm8061.png|link=Tecpel DMM-8061|[[File:Nuvola OK.png|16px]] [[Tecpel DMM-8061]] (4000 counts, RS232/USB)
File:Tp4000zc_front.png|link=TekPower TP4000ZC|[[File:Nuvola OK.png|16px]] [[TekPower TP4000ZC]] (4000 counts, RS232)
File:Tenma 72-7730.png|link=Tenma 72-7730|[[File:Nuvola OK.png|16px]] [[Tenma 72-7730]] (20000 counts, RS232/USB)
File:Tenma 72-7732.png|link=Tenma 72-7732|[[File:Nuvola OK.png|16px]] [[Tenma 72-7732]] (40000 counts, RS232/USB)
File:Tenma 72-7745.png|link=Tenma 72-7745|[[File:Nuvola OK.png|16px]] [[Tenma 72-7745]] (4000 counts, RS232/USB)
File:Tenma 72-7750.png|link=Tenma 72-7750|[[File:Nuvola OK.png|16px]] [[Tenma 72-7750]] (6000 counts, RS232/USB)
File:Tenma 72-9380A.png|link=Tenma 72-9380A|[[File:Nuvola OK.png|16px]] [[Tenma 72-9380A]] (40000 counts, RS232/USB)
File:Ut60e_-_front_-_alpha.png|link=UNI-T UT60E|[[File:Nuvola OK.png|16px]] [[UNI-T UT60E]] (4000 counts, RS232/USB)
File:Uni-t ut61b mugshot.png|link=UNI-T UT61B|[[File:Nuvola OK.png|16px]] [[UNI-T UT61B]] (4000 counts, RS232/USB)
File:Uni-t ut61c mugshot.png|link=UNI-T UT61C|[[File:Nuvola OK.png|16px]] [[UNI-T UT61C]] (6000 counts, RS232/USB)
File:Uni t ut61d device.png|link=UNI-T UT61D|[[File:Nuvola OK.png|16px]] [[UNI-T UT61D]] (6000 counts, RS232/USB)
File:Old ver front.png|link=UNI-T UT61E|[[File:Nuvola OK.png|16px]] [[UNI-T UT61E]] (22000 counts, RS232/USB)
File:Ut71c mugshot.png|link=UNI-T UT71C|[[File:Nuvola OK.png|16px]] [[UNI-T UT71C]] (40000 counts, RS232/USB)
File:Va_va18b.png|link=V&A VA18B|[[File:Nuvola OK.png|16px]] [[V&A VA18B]] (6000 counts, USB)
File:Va va40b mugshot.png|link=V&A VA40B|link=V&A VA40B|[[File:Nuvola OK.png|16px]] [[V&A VA40B]] (6000 counts, USB)
File:DVM4100.png|link=Velleman DVM4100|link=Velleman DVM4100|[[File:Nuvola OK.png|16px]] [[Velleman DVM4100]] (6000 counts, USB)
File:Victor 70C.png|link=Victor 70C|[[File:Nuvola OK.png|16px]] [[Victor 70C]] (4000 counts, USB)
File:Victor 86c device front.png|link=Victor 86C|[[File:Nuvola OK.png|16px]] [[Victor 86C]] (4000 counts, USB)
File:Voltcraft m-3650cr.png|link=Voltcraft M-3650CR|[[File:Nuvola OK.png|16px]] [[Voltcraft M-3650CR]] (2000 counts, RS232)
File:Voltcraft_M-3650D_transparent.png|link=Voltcraft M-3650D|[[File:Nuvola OK.png|16px]] [[Voltcraft M-3650D]] (2000 counts, RS232)
File:Voltcraft m4650cr.png|link=Voltcraft M-4650CR|[[File:Nuvola OK.png|16px]] [[Voltcraft M-4650CR]] (20000 counts, RS232)
File:Voltcraft ME-42 logo.png|link=Voltcraft ME-42|[[File:Nuvola OK.png|16px]] [[Voltcraft ME-42]] (4000 counts, RS232)
File:Voltcraft vc820 device.png|link=Voltcraft VC-820|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-820]] (4000 counts, RS232/USB)
File:Voltcraft vc830.png|link=Voltcraft VC-830|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-830]] (6000 counts, RS232/USB)
File:Voltcraft vc840 device front.png|link=Voltcraft VC-840|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-840]] (4000 counts, RS232/USB)
File:Voltcraft vc870 mugshot.png|link=Voltcraft VC-870|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-870]] (40000 counts, RS232/USB)
File:Voltcraft vc920.png|link=Voltcraft VC-920|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-920]] (40000/4000 counts, RS232/USB)
File:Voltcraft vc940.png|link=Voltcraft VC-940|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-940]] (40000/4000 counts, RS232/USB)
File:Voltcraft vc96 top.jpg|link=Voltcraft VC-96|[[File:Nuvola OK.png|16px]] [[Voltcraft VC-96]] (4000 counts, RS232)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Appa 107.png|link=APPA 107|[[File:Nuvola Red.png|16px]] [[APPA 107]] (4000 / 20000 counts, RS232)
File:Digitek dt8000.png|link=Digitek DT8000|[[File:Nuvola Red.png|16px]] [[Digitek DT8000]] (8000 counts, RS232)
File:Digitek dt80000.png|link=Digitek DT80000|[[File:Nuvola Red.png|16px]] [[Digitek DT80000]] (80000 counts, RS232)
File:Escort 179 device front.png|link=Escort 179|[[File:Nuvola Red.png|16px]] [[Escort 179]] (10000 counts, RS232)
File:Sigrok_logo_no_text_transparent_512.png|link=Gossen Metrawatt Metrahit 28C|[[File:Nuvola Red.png|16px]] [[Gossen Metrawatt Metrahit 28C]] (310000 counts, RS232/USB)
File:Sigrok_logo_no_text_transparent_512.png|link=Gossen Metrawatt Metrahit 28S|[[File:Nuvola Red.png|16px]] [[Gossen Metrawatt Metrahit 28S]] (310000 counts, RS232/USB)
File:Gossen metrahit 30m.png|link=Gossen-Metrawatt METRAHIT 30M|[[File:Nuvola Red.png|16px]] [[Gossen-Metrawatt METRAHIT 30M]] (1200000 counts, RS232/USB)
File:Sigrok_logo_no_text_transparent_512.png|link=Gossen Metrawatt Metrahit X-Tra|[[File:Nuvola Red.png|16px]] [[Gossen Metrawatt Metrahit X-Tra]] (12000 counts, USB)
File:Sigrok_logo_no_text_transparent_512.png|link=GW Instek GDM-8251A|[[File:Nuvola Red.png|16px]] [[GW Instek GDM-8251A]] (120000 counts, RS232/USB/DigitalIO)
File:Sigrok_logo_no_text_transparent_512.png|link=HYELEC MS8236|[[File:Nuvola Red.png|16px]] [[HYELEC MS8236]] (6000 counts, USB)
File:keysight-34465a-mugshot.png|link=Keysight 34465A|[[File:Nuvola Red.png|16px]] [[Keysight 34465A]] (1200000 counts, LAN/USB/GPIB)
File:800px-Mastech m9803r device front.png|link=MASTECH M9803R|[[File:Nuvola Red.png|16px]] [[MASTECH M9803R]] (4000 counts, RS232)
File:Metrix mx53.png|link=Metrix MX53|[[File:Nuvola Red.png|16px]] [[Metrix MX53]] (50000 counts, RS232)
File:Peaktech 4380 mugshot.png|link=PeakTech 4380|[[File:Nuvola Red.png|16px]] [[PeakTech 4380]] (4000 counts, RS232)
File:Peaktech 4390 mugshot.png|link=PeakTech 4390|[[File:Nuvola Red.png|16px]] [[PeakTech 4390]] (6000 counts, USB)
File:Sigrok_logo_no_text_transparent_512.png|link=Protek 6500|[[File:Nuvola Red.png|16px]] [[Protek 6500]] (50000 counts, RS232)
File:Rigol DM3068 front.png|link=Rigol DM3068|[[File:Nuvola Red.png|16px]] [[Rigol DM3068]] (2200000 counts, LAN/USB/GPIB/RS232)
File:Tenma 72-1016.png|link=Tenma 72-1016|[[File:Nuvola Red.png|16px]] [[Tenma 72-1016]] (6000 counts, RS232/USB)
File:Uni-t-ut81b mugshot.png|link=UNI-T UT81B|[[File:Nuvola Red.png|16px]] [[UNI-T UT81B]] (6000 counts, USB)
File:Voltcraft m3890dt usb.png|link=Voltcraft M-3890DT|[[File:Nuvola Red.png|16px]] [[Voltcraft M-3890DT]] (4000 counts, USB)
File:Voltcraft m4660a device front.png|link=Voltcraft M-4660A|[[File:Nuvola Red.png|16px]] [[Voltcraft M-4660A]] (20000 counts, RS232)
File:Voltcraft vc890 mugshot.png|link=Voltcraft VC-890|[[File:Nuvola Red.png|16px]] [[Voltcraft VC-890]] (60000 counts, USB/serial)
</gallery>

== LCR meters ==

<gallery widths="100Px" heights="100px">
File:Der ee de-5000 mugshot.png|link=DER EE DE-5000|[[File:Nuvola_OK.png|16px]] [[DER EE DE-5000]] (serial)
File:Peaktech 2170 mugshot.png|link=PeakTech 2170|[[File:Nuvola_OK.png|16px]] [[PeakTech 2170]] (serial)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Voltcraft4080_2.png|link=Voltcraft 4080|[[File:Nuvola Red.png|16px]] [[Voltcraft 4080]] (serial)
File:uni_t_ut612_1.png|link=UNI-T UT612|[[File:Nuvola Red.png|16px]] [[UNI-T UT612]] (USB/HID)
</gallery>

== Sound level meters ==

<gallery widths="100px" heights="100px">
File:CEM DT-8852.png|link=CEM DT-8852|[[File:Nuvola OK.png|16px]] [[CEM DT-8852]] (USB)
File:Colead SL-5868P.png|link=Colead SL-5868P|[[File:Nuvola OK.png|16px]] [[Colead SL-5868P]] (RS232)
File:Kecheng KC-330B.png|link=Kecheng KC-330B|[[File:Nuvola OK.png|16px]] [[Kecheng KC-330B]] (RS232)
File:PCE-322A.png|link=PCE PCE-322A|[[File:Nuvola OK.png|16px]] [[PCE PCE-322A]] (USB)
File:Tondaj sl-814.png|link=Tondaj SL-814|[[File:Nuvola OK.png|16px]] [[Tondaj SL-814]] (USB)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Pce_pce-222_front.png|link=PCE PCE-222|[[File:Nuvola Red.png|16px]] [[PCE PCE-222]] (also: light-/thermo-/hygrometer; RS232)
File:Voltcraft_dl_160s.png|link=Voltcraft DL-160S|[[File:Nuvola Red.png|16px]] [[Voltcraft DL-160S]] (USB)
File:Voltcraft_DL-161S.png|link=Voltcraft DL-161S|[[File:Nuvola Red.png|16px]] [[Voltcraft DL-161S]] (USB)
</gallery>

== Thermometers ==

<gallery widths="100px" heights="100px">
File:rs55ii.png|link=APPA 55II|[[File:Nuvola OK.png|16px]] [[APPA 55II]] (2xtemp, RS232)
File:EL-USB-2.png|link=Lascar Electronics EL-USB-2|[[File:Nuvola OK.png|16px]] [[Lascar Electronics EL-USB-2]] (1xtemp, 1xhum, USB)
File:Mic 98581.png|link=MIC 98581|[[File:Nuvola OK.png|16px]] [[MIC 98581]] (1xtemp, USB)
File:Mic 98583.png|link=MIC 98583|[[File:Nuvola OK.png|16px]] [[MIC 98583]] (1xtemp, 1xhum, USB)
File:Uni-t ut325 front.png|link=UNI-T UT325|[[File:Nuvola OK.png|16px]] [[UNI-T UT325]] (2xtemp, USB)
File:Voltcraft k204.png|link=Voltcraft K204|[[File:Nuvola OK.png|16px]] [[Voltcraft K204]] (4xtemp, RS232)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Elitech rc3.png|link=Elitech RC-3|[[File:Nuvola Red.png|16px]] [[Elitech RC-3]] (1xtemp, RS232)
File:Escort 19.png|link=Escort 19|[[File:Nuvola Red.png|16px]] [[Escort 19]] (1x temp, RS232)
File:Pax_instruments_t400.jpg|link=Pax Instruments T400|[[File:Nuvola Red.png|16px]] [[Pax Instruments T400]] (4xtemp, USB)
File:Pce_pce-222_front.png|link=PCE PCE-222|[[File:Nuvola Red.png|16px]] [[PCE PCE-222]] (1xtemp, RS232)
File:Rding temper front.png|link=RDing TEMPer|[[File:Nuvola Red.png|16px]] [[RDing TEMPer]] (1xtemp, USB)
File:Rding temper gold device front.png|link=RDing TEMPer Gold|[[File:Nuvola Red.png|16px]] [[RDing TEMPer Gold]] (1xtemp, USB)
File:Rding temper1 device front.png|link=RDing TEMPer1|[[File:Nuvola Red.png|16px]] [[RDing TEMPer1]] (1xtemp, USB)
File:Pcsensor_temper1k2.png|link=RDing TEMPer1K2|[[File:Nuvola Red.png|16px]] [[RDing TEMPer1K2]] (1xtemp, USB)
File:Voltcraft dl-120th.png|link=Voltcraft DL-120TH|[[File:Nuvola Red.png|16px]] [[Voltcraft DL-120TH]] (1xtemp, USB)
File:Voltcraft dl-140th.png|link=Voltcraft DL-140TH|[[File:Nuvola Red.png|16px]] [[Voltcraft DL-140TH]] (1xtemp, USB)
</gallery>

== Hygrometers ==

<gallery widths="100px" heights="100px">
File:EL-USB-2.png|link=Lascar Electronics EL-USB-2|[[File:Nuvola OK.png|16px]] [[Lascar Electronics EL-USB-2]] (temp/humidity, USB)
File:Mic 98583.png|link=MIC 98583|[[File:Nuvola OK.png|16px]] [[MIC 98583]] (temp/humidity, USB)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Pce_pce-222_front.png|link=PCE PCE-222|[[File:Nuvola Red.png|16px]] [[PCE PCE-222]] (also: light-/soundlevelmeter; RS232)
File:Silabs si7005usb dgl eb top.jpg|link=SiLabs Si7005USB-Dongle|[[File:Nuvola Red.png|16px]] [[SiLabs Si7005USB-Dongle]] (USB)
</gallery>

== Anemometers ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Mastech ms6252b.png|link=MASTECH MS6252B|[[File:Nuvola Red.png|16px]] [[MASTECH MS6252B]] (USB)
</gallery>

== Light meters ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Lutron YK-2005LX.png|link=Lutron YK-2005LX|[[File:Nuvola Red.png|16px]] [[Lutron YK-2005LX]] (RS232)
File:Pce_pce-222_front.png|link=PCE PCE-222|[[File:Nuvola Red.png|16px]] [[PCE PCE-222]] (RS232)
</gallery>

== Energy meters ==

<gallery widths="100px" heights="100px">
File:Actaris_a14c5_teleinfo.png|link=EDF Teleinfo|[[File:Nuvola OK.png|16px]] [[EDF Teleinfo]] (RS232)
File:Acme.png|link=BayLibre ACME|[[File:Nuvola OK.png|16px]] [[BayLibre ACME]] (I2C)
</gallery>

== DAQs ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Ni usb 6008.png|link=NI USB-6008|[[File:Nuvola Red.png|16px]] [[NI USB-6008]] (8/2 analog inputs/outputs, 12 digital I/Os)
</gallery>

== Dataloggers ==

<gallery widths="100px" heights="100px">
File:EL-USB-CO.png|link=Lascar Electronics EL-USB-CO|[[File:Nuvola OK.png|16px]] [[Lascar Electronics EL-USB-CO]] (carbon monoxide (CO) logger, USB)
File:Testo_435-4.png|link=Testo 435-4|[[File:Nuvola OK.png|16px]] [[Testo 435-4]] (USB)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Gsg_indoor_air_monitor.png|link=GSG Indoor Air Monitor|[[File:Nuvola Red.png|16px]] [[GSG Indoor Air Monitor]] (air quality monitor, USB)
File:Maul_studio_i.png|link=MAUL studio i|[[File:Nuvola Red.png|16px]] [[MAUL studio i]] (weighing scale, RS232)
File:Voltcraft co-20.png|link=Voltcraft CO-20|[[File:Nuvola Red.png|16px]] [[Voltcraft CO-20]] (air quality monitor, USB)
</gallery>

== Tachometers ==

<gallery widths="100px" heights="100px">
File:Uni-t ut372 mugshot.png|link=UNI-T UT372|[[File:Nuvola OK.png|16px]] [[UNI-T UT372]] (USB)
</gallery>

== Scales ==

<gallery widths="100px" heights="100px">
File:Kern ew-6200-2nm mugshot.png|link=KERN scale series|[[File:Nuvola OK.png|16px]] [[KERN scale series]] (RS232)
</gallery>

== Digital loads ==

<gallery widths="100px" heights="100px">
File:Arachnid Labs ReLoad Pro - Mugshot.png|link=Arachnid Labs Reload Pro|[[File:Nuvola OK.png|16px]] [[Arachnid Labs Reload Pro]] (USB)
File:Maynuo m9812 mugshot.png|link=Maynuo M9812|[[File:Nuvola OK.png|16px]] [[Maynuo M9812]]
File:Ztetech-ebd-usb%2B.png|link=ZKETECH_EBD-USB|[[File:Nuvola OK.png|16px]] [[ZKETECH EBD-USB]]
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Atten ATZ9711.png|link=ATTEN ATZ9711|[[File:Nuvola Red.png|16px]] [[ATTEN ATZ9711]]
</gallery>

== Function generators ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:BG7TBL small.png|link=BG7TBL|[[File:Nuvola Red.png|16px]] [[BG7TBL]] (138MHz-4.4GHz, PC-based, USB)
File:Hantek DDS-3X25 top.png|link=Hantek DDS-3X25|[[File:Nuvola Red.png|16px]] [[Hantek DDS-3X25]] (25MHz, PC-based, USB)
File:Hp_3325a_front.png|link=HO 3325A|[[File:Nuvola Red.png|16px]] [[HP 3325A]] (20MHz, GPIB)
File:MHINSTEK UDB1305S persp.jpg|link=MHINSTEK UDB1xxxS|[[File:Nuvola Red.png|16px]] [[MHINSTEK UDB1xxxS]] (2/5/8MHz, Serial)
File:MHINSTEK MHS-5200A persp.jpg|link=MHINSTEK MHS-5200A|[[File:Nuvola Red.png|16px]] [[MHINSTEK MHS-5200A]] (6/12/20/25MHz, USB)
File:Siglent sdg1010 device front 8116.png|link=Siglent SDG1010|[[File:Nuvola Red.png|16px]] [[Siglent SDG1010]] (10MHz, USB)
</gallery>

== Frequency counters ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Hantek DDS-3X25 top.png|link=Hantek DDS-3X25|[[File:Nuvola Red.png|16px]] [[Hantek DDS-3X25]] (50MHz, PC-based, USB)
File:HP 5350B.png|link=HP 5350B|[[File:Nuvola Red.png|16px]] [[HP 5350B]] (10Hz-20GHz, GPIB)
</gallery>

== RF receivers ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Per vices noctar.png|link=Per Vices Noctar|[[File:Nuvola Red.png|16px]] [[Per Vices Noctar]] (100kHz-4GHz, IQ modulator/demodulator, PCIe)
</gallery>

== Spectrum analyzers ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Sigrok_logo_no_text_transparent_512.png|link=Siglent SSA3000X series|[[File:Nuvola Red.png|16px]] [[Siglent SSA3000X series]] (9kHz-2.1GHz, USB, Ethernet)
</gallery>

== Power supplies ==

<gallery widths="100px" heights="100px">
File:Atten PPS3203T-3S.png|link=Atten PPS3203T-3S|[[File:Nuvola OK.png|16px]] [[Atten PPS3203T-3S]] (3ch, 2x 0-32V, 1x 0-6V at 0-3A, USB&RS232)
File:Chroma_61604_front.png|link=Chroma 61604|[[File:Nuvola OK.png|16px]] [[Chroma 61604]] (1ch, 0-300V, 0-16A, 2kVA)
File:Conrad_digi_35_cpu_logo.png|link=Conrad DIGI 35 CPU|[[File:Nuvola OK.png|16px]] [[Conrad DIGI 35 CPU]] (1ch, 0-35V / 0-2.55A, RS232)
File:HP-6632B_mugshot.png|link=HP 6632B|[[File:Nuvola OK.png|16px]] [[HP 6632B]] (1ch, 0-20V / 0-5A, GPIB&RS232)
File:Velleman ps3005d mugshot.png|link=Korad KAxxxxP series|[[File:Nuvola OK.png|16px]] [[Korad KAxxxxP series]] (1ch, 0-30V / 0-5A, USB&RS232)
File:Manson hcs3202.png|link=Manson HCS-3202|[[File:Nuvola OK.png|16px]] [[Manson HCS-3202]] (1ch, 1-36V / 0-10A, USB)
File:Motech_LPS-301_logo.png|link=Motech LPS-301|[[File:Nuvola OK.png|16px]] [[Motech LPS-301]] (1ch, 1-32V / 0-2A, RS232)
File:Philips PM2813.png|link=Philips PM2800 series|[[File:Nuvola OK.png|16px]] Fluke/Philips PM2800 series
File:Rigol DP832.png|link=Rigol DP800 series|[[File:Nuvola OK.png|16px]] [[Rigol DP800 series]]
File:rs_hmc8043_mugshot.png|link=Rohde&Schwarz HMC 8043|[[File:Nuvola OK.png|16px]] [[Rohde&Schwarz HMC 8043]] (3ch, 0-32V / 0-3A, USB&LXI)
File:Voltcraft pps-11815 logo.png|link=Voltcraft PPS-11815|[[File:Nuvola OK.png|16px]] [[Voltcraft PPS-11815]] (1ch, 0-60V / 0-5A, USB)
File:Rdtech-dps.png|link=RDTech DPS series|[[File:Nuvola OK.png|16px]] [[RDTech DPS series]] (1ch, various, USB/BT)
</gallery>

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery>
File:Sigrok logo no text transparent 512.png|link=Voltcraft 18220|[[File:Nuvola Red.png|16px]] [[Voltcraft 18220]] (1ch, 0-40V/0-5A, RS232)
</gallery>

== GPIB interfaces ==

'''Work in progress [[File:Nuvola Orange.png|16px]] / planned [[File:Nuvola Red.png|16px]]:'''

<gallery widths="100px" heights="100px">
File:Beiming_s82357.png|link=Beiming S82357|[[File:Nuvola Red.png|16px]] [[Beiming S82357]] (hardware-based, USB)
File:ICS 488-USB.png|link=ICS 488-USB|[[File:Nuvola Red.png|16px]] [[ICS 488-USB]] (hardware-based, USB)
File:GPIB-USB 82357B clone.png|link=GPIB-USB 82357B clone|[[File:Nuvola Red.png|16px]] [[GPIB-USB 82357B clone]] (hardware-based, USB)
File:NI GPIB-ENET.png|link=National Instruments GPIB-ENET|[[File:Nuvola Red.png|16px]] [[National Instruments GPIB-ENET]] (hardware-based, Ethernet)
File:NI GPIB-USB-HS.png|link=National Instruments GPIB-USB-HS|[[File:Nuvola Red.png|16px]] [[National Instruments GPIB-USB-HS]] (hardware-based, USB)
File:Prologix-usb.png|link=Prologix GPIB-USB|[[File:Nuvola Red.png|16px]] [[Prologix GPIB-USB]] (firmware-based, USB)
File:GalvantGPIBUSBrev4.JPG|link=Galvant GPIBUSB|[[File:Nuvola Red.png|16px]] [[Galvant GPIBUSB]] (firmware-based, USB, OSHW)
</gallery>

== Potential other candidates ==

If you own any other logic analyzers, oscilloscopes, multimeters, dataloggers, ... and want to add support for them in sigrok (or donate/lend devices to developers), please let us know. We're always happy to add more hardware support! Join the [https://lists.sourceforge.net/lists/listinfo/sigrok-devel mailing list] or ask on [irc://chat.freenode.net/sigrok IRC #sigrok] if you want to help out.

__FORCETOC__

File format:Rigol WFM4

2018-12-29T19:52:11Z

Apo: endianness

{{DISPLAYTITLE:File format:Rigol WFM4}}
WFM4 is a proprietary file format used by the [[Rigol DS4000 series]] digital storage oscilloscopes. It is used to record the measured waveforms.

== Header ==

The known header values that are of interest to sigrok are as follows (addresses are hex, and data is little endian):

{| border="0" class="alternategrey sigroktable sortable"
|-
! style="width: 5em; text-align: left;" | Bytes
! style="text-align: left;" | Field
|-
| 0 - 3
| 0xA5 0xA5 0x38 0x00
|-
| 40
| Bitmask of the activated analog channels (LSB is CH1, etc)
|-
| 60 - 63
| Memory depth: Number of samples per channel (uint32)
|-
| 64 - 67
| Sampling rate in Hz (float)
|-
| 134 - 137
| Bytes per channel: memory depth plus padding (uint32)
|}

The timespan of the file can be determined by:

number of points per channel / sampling rate

== Data ==

The channel data starts at offset 0x51EC and is non-interleaved. Each active channel (starting with channel 1) has ''memory_depth'' continuous samples, followed by ''bytes_per_channel - memory_depth'' bytes of padding.

== Resources ==
* [https://github.com/Cat-Ion/rigol-ds4000-wfm A documentation of the known values of the format]

[[Category:File format]]

Input output formats

2018-12-29T16:41:20Z

Apo: Add link to WFM4 format

[[libsigrok]] supports a number of different input modules (a.k.a. file formats) and output modules, and has a generic API which allows easily adding more input/output modules.

== Supported input/output formats ==

{| border="0" style="font-size: smaller" class="alternategrey sortable sigroktable"
|-
! style="width: 12em;" | Name
!Input
!Output
!Description
|-
| [[File format:analog|Analog]]
| bgcolor="yellow" | —
| bgcolor="lime" | supported
| Text output of analog data and types.
|-
| [[File format:ascii|ASCII]]
| bgcolor="yellow" | —
| bgcolor="lime" | supported
| ASCII art.
|-
| [[File format:binary|Binary]]
| bgcolor="lime" | supported
| bgcolor="lime" | supported
| Raw binary data output without any metadata attached.
|-
| [[File format:bits|Bits]]
| bgcolor="yellow" | —
| bgcolor="lime" | supported
| 0/1 digits.
|-
| style="white-space: nowrap;" | [[File format:chronovu_la8|ChronoVu LA8]]
| bgcolor="lime" | supported
| bgcolor="lime" | supported
| [[ChronoVu LA8]] software file format (usually with .kdt file extension).
|-
| [[File format:csv|CSV]]
| bgcolor="lime" | supported
| bgcolor="lime" | supported
| Comma-separated values (also usable for generating data and config files for gnuplot).
|-
| [[File format:hex|hex]]
| bgcolor="yellow" | —
| bgcolor="lime" | supported
| Hexadecimal digits.
|-
| [[File format:logicport|Intronix Logicport LA1034]]
| bgcolor="lime" | supported
| bgcolor="yellow" | —
| [[Intronix Logicport LA1034]] *.lpf files.
|-
| [[File format:ols|ols]]
| bgcolor="yellow" | —
| bgcolor="lime" | supported
| The file format used by the [http://www.lxtreme.nl/ols/ "Alternative" Java client] for the [[Openbench Logic Sniffer]].
|-
| [[File format:srzip|srzip]]
| bgcolor="lime" | supported
| bgcolor="lime" | supported
| The current (v2) sigrok session file format (*.sr).
|-
| [[File format:vcd|VCD]]
| bgcolor="lime" | supported
| bgcolor="lime" | supported
| The [http://en.wikipedia.org/wiki/Value_change_dump Value Change Dump] format (can also be visualized in [http://gtkwave.sourceforge.net/ gtkwave], for instance).
|-
| [[File format:wav|WAV]]
| bgcolor="lime" | supported
| bgcolor="lime" | supported
| The [http://en.wikipedia.org/wiki/WAV waveform audio] (WAV) file format.
|-
| [[File format:raw_analog|Raw analog]]
| bgcolor="lime" | supported
| bgcolor="yellow" | —
| Analog signals without header (configurable sample size, format, and endianness).

|-
| [[File format:trace32_ad|Lauterbach Trace32]]
| bgcolor="lime" | supported
| bgcolor="yellow" | —
| The Lauterbach Trace32 logic analyzer data file format.

|}

== Supported transform modules ==

{| border="0" style="font-size: smaller" class="alternategrey sortable sigroktable"
|-
! style="width: 8em;" | Name
!Description
|-
| nop
| Do nothing.
|-
| scale
| Scale analog values by a specified factor.
|-
| invert
| Invert values.
|}

== Possible candidates for future input/output formats ==

{| border="0" style="font-size: smaller" class="alternategrey sortable sigroktable"
|-
!Name
!Description
|-
| Scanalogic
| Used by the [[IKALOGIC Scanalogic-2]] and [[IKALOGIC ScanaPLUS]] logic analyzers.
|-
| [[File format:rigol_rof|Rigol ROF]]
| Used by the [[Rigol DP800 series]] power supplies.
|-
| [[File format:rigol_raf|Rigol RAF]]
| Used by the Rigol DG1000Z, DG4000, and DG5000 series signal generators. See [http://www.batronix.com/pdf/Rigol/UserGuide/DG1000Z_UserGuide_EN.pdf DG1000Z User Guide] page 2-75, also [http://www.eevblog.com/forum/testgear/rigol-dg4000-series-raf-file-format/msg559443/ this post] at eevblog.
|-
| [[File format:rigol_wfm|Rigol WFM]]
| Used by the Rigol DS series oscilloscopes. See https://github.com/mabl/pyRigolWFM/blob/master/wfm.py
|-
| [[File_format:Rigol_WFM4|Rigol WFM4]]
| Used by the Rigol DS4000 series oscilloscopes.
|-
| Vector MDF (v3.3) / ASAM MDF (v4.x)
| Automotive industry standard format. Docs can be found [http://vector.com/vi_mdf_de.html here] and [http://vector.com/downloads/mdf_specification.pdf here]. Validator is [http://vector.com/downloads/MDFValidator2.1.8.zip here]. Some code is [https://code.google.com/p/mdfreader/ here] and [http://sourceforge.net/p/mdfdatafile/code/HEAD/tree/ here].
|-
| [http://en.wikipedia.org/wiki/Comtrade COMTRADE]
| File format used by devices in power engineering (e.g. protective relays, fault recorders). Can contain digital and analog data with constant or variable sample rate.
|-
| [[File format:pwl|PWL]]
| Trivial file format that can be used to define the signal of voltage/current sources in a SPICE simulation.
|-
| [[File format:tektronix_wfm|Tektronix WFM]]
| Used by the Tektronix TDS series oscilloscopes. A parser for Matlab can be found [http://www.mathworks.com/matlabcentral/fileexchange/5873-tektronix-binary-file-readers/content/wfmread.m here].
|}

Rigol DS4000 series/Info

2018-12-29T16:26:47Z

Apo: /* lsusb */

== lsusb ==


$ '''lsusb -v'''

Bus 001 Device 011: ID 1ab1:04b1 Rigol Technologies
Device Descriptor:
bLength 18
bDescriptorType 1
bcdUSB 2.00
bDeviceClass 0
bDeviceSubClass 0
bDeviceProtocol 0
bMaxPacketSize0 64
idVendor 0x1ab1 Rigol Technologies
idProduct 0x04b1
bcdDevice 1.00
iManufacturer 3 Rigol Technologies
iProduct 4 DS4000 Series
iSerial 5 DS4A200500078
bNumConfigurations 1
Configuration Descriptor:
bLength 9
bDescriptorType 2
wTotalLength 39
bNumInterfaces 1
bConfigurationValue 1
iConfiguration 0
bmAttributes 0xc0
Self Powered
MaxPower 100mA
Interface Descriptor:
bLength 9
bDescriptorType 4
bInterfaceNumber 0
bAlternateSetting 0
bNumEndpoints 3
bInterfaceClass 254 Application Specific Interface
bInterfaceSubClass 3 Test and Measurement
bInterfaceProtocol 1 TMC
iInterface 0
Endpoint Descriptor:
bLength 7
bDescriptorType 5
bEndpointAddress 0x85 EP 5 IN
bmAttributes 2
Transfer Type Bulk
Synch Type None
Usage Type Data
wMaxPacketSize 0x0200 1x 512 bytes
bInterval 0
Endpoint Descriptor:
bLength 7
bDescriptorType 5
bEndpointAddress 0x06 EP 6 OUT
bmAttributes 2
Transfer Type Bulk
Synch Type None
Usage Type Data
wMaxPacketSize 0x0200 1x 512 bytes
bInterval 0
Endpoint Descriptor:
bLength 7
bDescriptorType 5
bEndpointAddress 0x81 EP 1 IN
bmAttributes 3
Transfer Type Interrupt
Synch Type None
Usage Type Data
wMaxPacketSize 0x0040 1x 64 bytes
bInterval 11
Device Qualifier (for other device speed):
bLength 10
bDescriptorType 6
bcdUSB 2.00
bDeviceClass 255 Vendor Specific Class
bDeviceSubClass 0
bDeviceProtocol 0
bMaxPacketSize0 64
bNumConfigurations 1

Rigol DS4000 series/Info

2018-12-29T16:24:03Z

Apo: Created page with "== lsusb == $ '''lsusb -v''' Bus 001 Device 010: ID 1ab1:04b1 Rigol Technologies Device Descriptor: bLength 18 bDescriptorType 1 b..."

== lsusb ==


$ '''lsusb -v'''
Bus 001 Device 010: ID 1ab1:04b1 Rigol Technologies
Device Descriptor:
bLength 18
bDescriptorType 1
bcdUSB 2.00
bDeviceClass 0
bDeviceSubClass 0
bDeviceProtocol 0
bMaxPacketSize0 64
idVendor 0x1ab1 Rigol Technologies
idProduct 0x04b1
bcdDevice 1.00
iManufacturer 3 (error)
iProduct 4 (error)
iSerial 5 (error)
bNumConfigurations 1
Configuration Descriptor:
bLength 9
bDescriptorType 2
wTotalLength 39
bNumInterfaces 1
bConfigurationValue 1
iConfiguration 0
bmAttributes 0xc0
Self Powered
MaxPower 100mA
Interface Descriptor:
bLength 9
bDescriptorType 4
bInterfaceNumber 0
bAlternateSetting 0
bNumEndpoints 3
bInterfaceClass 254 Application Specific Interface
bInterfaceSubClass 3 Test and Measurement
bInterfaceProtocol 1 TMC
iInterface 0
Endpoint Descriptor:
bLength 7
bDescriptorType 5
bEndpointAddress 0x85 EP 5 IN
bmAttributes 2
Transfer Type Bulk
Synch Type None
Usage Type Data
wMaxPacketSize 0x0200 1x 512 bytes
bInterval 0
Endpoint Descriptor:
bLength 7
bDescriptorType 5
bEndpointAddress 0x06 EP 6 OUT
bmAttributes 2
Transfer Type Bulk
Synch Type None
Usage Type Data
wMaxPacketSize 0x0200 1x 512 bytes
bInterval 0
Endpoint Descriptor:
bLength 7
bDescriptorType 5
bEndpointAddress 0x81 EP 1 IN
bmAttributes 3
Transfer Type Interrupt
Synch Type None
Usage Type Data
wMaxPacketSize 0x0040 1x 64 bytes
bInterval 11

Rigol DS4000 series

2018-12-29T16:20:41Z

Apo:

{{Infobox oscilloscope
| name = Rigol DS4000/MSO4000 Series
| status = supported
| source_code_dir =
| channels = analog: 2 or 4, digital (MSO4000 series): 16
| samplerate = analog: 4GSa/s (interleaved), 2GSa/s (non-interleaved); digital: 1GSa/s
| bandwidth = 100-500MHz (depending on model)
| vertical_resolution = 8bits
| triggers = edge, pulse, runt, nth edge, slope, video, pattern, RS232/UART, I²C, SPI, CAN, FlexRay, USB
| input_impedance = 1MΩ‖15pF or 50Ω 300V RMS CAT I analog, 101kΩ‖9pF digital
| memory = 70/140 Mpts analog (mode/ch-dependent), 28 Mpts/channel (digital)
| display = 9 Inch WVGA (800x480) 160,000 colours
| connectivity = USB host/device, ethernet (LXI), aux out (trigger, fast, pass/fail, GND), VGA
| features = math: +, —, x, /, FFT, digital filters, editable advanced operations, logic; vertical sensitivity: 1 mV/div to 5 V/div
| website = [https://www.rigolna.com/products/digital-oscilloscopes/4000/ rigolna.com]
}}

The [https://www.rigolna.com/products/digital-oscilloscopes/4000/ Rigol DS4000 Series] are 4-channel oscilloscopes with an analog bandwidth of 100-500MHz and 4GSa/s maximum sampling rate.

See [[Rigol DS4000 series/Info]] for more detailed information on the device.

== Protocol ==

The device uses [[USBTMC]] or LXI via its Ethernet port for communication with a host PC. The protocol is based on SCPI commands.

== Resources ==

* [http://int.rigol.com/File/TechDoc/20151103/MSO%EF%BC%8DDS4000%20User%27s%20Guide.pdf User manual]
* [http://int.rigol.com/File/TechDoc/20160831/DS4000E_ProgrammingGuide_EN.pdf Programming guide]

[[Category:Device]]
[[Category:Oscilloscope]]

File format:Rigol WFM4

2018-12-29T14:34:56Z

Apo:

{{DISPLAYTITLE:File format:Rigol WFM4}}
WFM4 is a proprietary file format used by the [[Rigol DS4000 series]] digital storage oscilloscopes. It is used to record the measured waveforms.

== Header ==

The known header values that are of interest to sigrok are as follows (addresses are hex):

{| border="0" class="alternategrey sigroktable sortable"
|-
! style="width: 5em; text-align: left;" | Bytes
! style="text-align: left;" | Field
|-
| 0 - 3
| 0xA5 0xA5 0x38 0x00
|-
| 40
| Bitmask of the activated analog channels (LSB is CH1, etc)
|-
| 60 - 63
| Memory depth: Number of samples per channel (uint32)
|-
| 64 - 67
| Sampling rate in Hz (float)
|-
| 134 - 137
| Bytes per channel: memory depth plus padding (uint32)
|}

The timespan of the file can be determined by:

number of points per channel / sampling rate

== Data ==

The channel data starts at offset 0x51EC and is non-interleaved. Each active channel (starting with channel 1) has ''memory_depth'' continuous samples, followed by ''bytes_per_channel - memory_depth'' bytes of padding.

== Resources ==
* [https://github.com/Cat-Ion/rigol-ds4000-wfm A documentation of the known values of the format]

[[Category:File format]]

File format:Rigol WFM4

2018-12-29T14:09:27Z

Apo: Created page with "{{DISPLAYTITLE:File format:Rigol WFM4}} WFM4 is a proprietary file format used by the Rigol DS4000 series digital storage oscilloscopes. It is used to record the measured..."

{{DISPLAYTITLE:File format:Rigol WFM4}}
WFM4 is a proprietary file format used by the [[Rigol DS4000 series]] digital storage oscilloscopes. It is used to record the measured waveforms.

== Header ==

The known header values that are of interest to sigrok are as follows (addresses are hex):

{| border="0" class="alternategrey sigroktable sortable"
|-
! style="width: 5em; text-align: left;" | Bytes
! style="text-align: left;" | Field
|-
| 0 - 3
| 0xA5 0xA5 0x38 0x00
|-
| 40
| Bitmask of the activated analog channels (LSB is CH1, etc)
|-
| 60 - 63
| Memory depth: Number of samples per channel (uint32)
|-
| 64 - 67
| Sampling rate in Hz (float)
|-
| 134 - 137
| Bytes per channel: memory depth plus padding (uint32)
|}

The timespan of the file can be determined by:

number of points per channel / sampling rate

== Data ==

The channel data starts at offset 0x51EC and is non-interleaved. Each active channel (starting with channel 1) has ''memory_depth'' continuous samples, followed by ''bytes_per_channel - memory_depth'' bytes of padding.

[[Category:File format]]

Rigol DS4000 series

2018-12-29T13:21:49Z

Apo:

{{Infobox oscilloscope
| name = Rigol DS4000/MSO4000 Series
| status = supported
| source_code_dir =
| channels = analog: 2 or 4, digital (MSO4000 series): 16
| samplerate = analog: 4GSa/s (interleaved), 2GSa/s (non-interleaved); digital: 1GSa/s
| bandwidth = 100-500MHz (depending on model)
| vertical_resolution = 8bits
| triggers = edge, pulse, runt, nth edge, slope, video, pattern, RS232/UART, I²C, SPI, CAN, FlexRay, USB
| input_impedance = 1MΩ‖15pF or 50Ω 300V RMS CAT I analog, 101kΩ‖9pF digital
| memory = 70/140 Mpts analog (mode/ch-dependent), 28 Mpts/channel (digital)
| display = 9 Inch WVGA (800x480) 160,000 colours
| connectivity = USB host/device, ethernet (LXI), aux out (trigger, fast, pass/fail, GND), VGA
| features = math: +, —, x, /, FFT, digital filters, editable advanced operations, logic; vertical sensitivity: 1 mV/div to 5 V/div
| website = [https://www.rigolna.com/products/digital-oscilloscopes/4000/ rigolna.com]
}}

The [https://www.rigolna.com/products/digital-oscilloscopes/4000/ Rigol DS4000 Series] are 4-channel oscilloscopes with an analog bandwidth of 100-500MHz and 4GSa/s maximum sampling rate.

== Protocol ==

The device uses [[USBTMC]] or LXI via its Ethernet port for communication with a host PC. The protocol is based on SCPI commands.

== Resources ==

* [http://int.rigol.com/File/TechDoc/20151103/MSO%EF%BC%8DDS4000%20User%27s%20Guide.pdf User manual]
* [http://int.rigol.com/File/TechDoc/20160831/DS4000E_ProgrammingGuide_EN.pdf Programming guide]

[[Category:Device]]
[[Category:Oscilloscope]]

Rigol DS4000 series

2018-12-29T11:50:47Z

Apo: 28 Mpts is per channel

{{Infobox oscilloscope
| name = Rigol DS4000/MSO4000 Series
| status = supported
| source_code_dir =
| channels = 2 or 4 analog, 16 digital (MSO4000 series)
| samplerate = 4GSa/s (interleaved), 2GSa/s (non-interleaved)
| bandwidth = 100-500MHz (depending on model)
| vertical_resolution = 8bits
| triggers = edge, pulse, runt, nth edge, slope, video, pattern, RS232/UART, I²C, SPI, CAN, FlexRay, USB
| input_impedance = 1MΩ‖15pF or 50Ω 300V RMS CAT I analog, 101kΩ‖9pF digital
| memory = 70/140 Mpts analog (mode/ch-dependent), 28 Mpts/channel (digital)
| display = 9 Inch WVGA (800x480) 160,000 colours
| connectivity = USB host/device, ethernet (LXI), aux out (trigger, fast, pass/fail, GND), VGA
| features = math: +, —, x, /, FFT, digital filters, editable advanced operations, logic; vertical sensitivity: 1 mV/div to 5 V/div
| website = [https://www.rigolna.com/products/digital-oscilloscopes/4000/ rigolna.com]
}}

The [https://www.rigolna.com/products/digital-oscilloscopes/4000/ Rigol DS4000 Series] are 4-channel oscilloscopes with an analog bandwidth of 100-500MHz and 4GSa/s maximum sampling rate.

== Protocol ==

The device uses [[USBTMC]] or LXI via its Ethernet port for communication with a host PC. The protocol is based on SCPI commands.

== Resources ==

* [http://int.rigol.com/File/TechDoc/20151103/MSO%EF%BC%8DDS4000%20User%27s%20Guide.pdf User manual]
* [http://int.rigol.com/File/TechDoc/20160831/DS4000E_ProgrammingGuide_EN.pdf Programming guide]

[[Category:Device]]
[[Category:Oscilloscope]]

Rigol DS4000 series

2018-12-29T11:49:52Z

Apo: initial commit

{{Infobox oscilloscope
| name = Rigol DS4000/MSO4000 Series
| status = supported
| source_code_dir =
| channels = 2 or 4 analog, 16 digital (MSO4000 series)
| samplerate = 4GSa/s (interleaved), 2GSa/s (non-interleaved)
| bandwidth = 100-500MHz (depending on model)
| vertical_resolution = 8bits
| triggers = edge, pulse, runt, nth edge, slope, video, pattern, RS232/UART, I²C, SPI, CAN, FlexRay, USB
| input_impedance = 1MΩ‖15pF or 50Ω 300V RMS CAT I analog, 101kΩ‖9pF digital
| memory = 70/140 Mpts analog (mode/ch-dependent), 28 Mpts (digital)
| display = 9 Inch WVGA (800x480) 160,000 colours
| connectivity = USB host/device, ethernet (LXI), aux out (trigger, fast, pass/fail, GND), VGA
| features = math: +, —, x, /, FFT, digital filters, editable advanced operations, logic; vertical sensitivity: 1 mV/div to 5 V/div
| website = [https://www.rigolna.com/products/digital-oscilloscopes/4000/ rigolna.com]
}}

The [https://www.rigolna.com/products/digital-oscilloscopes/4000/ Rigol DS4000 Series] are 4-channel oscilloscopes with an analog bandwidth of 100-500MHz and 4GSa/s maximum sampling rate.

== Protocol ==

The device uses [[USBTMC]] or LXI via its Ethernet port for communication with a host PC. The protocol is based on SCPI commands.

== Resources ==

* [http://int.rigol.com/File/TechDoc/20151103/MSO%EF%BC%8DDS4000%20User%27s%20Guide.pdf User manual]
* [http://int.rigol.com/File/TechDoc/20160831/DS4000E_ProgrammingGuide_EN.pdf Programming guide]

[[Category:Device]]
[[Category:Oscilloscope]]