Different categories
PicoScope (USB oscilloscope) vs DAQ hardware
Explains the different jobs of a PC oscilloscope (PicoScope 2000 Series: 2204A and 2208B, with PicoScope 7) and a data-acquisition device (LabJack T7), and when to use each or both.
These are not the same kind of thing
An oscilloscope is built to show the shape of a fast-changing signal over a short time. The T7, the DAQ device shown here, samples more slowly but reads more channels at finer resolution and streams them to the computer. Pico Technology says the same about its own software: its PicoLog 6 logger suits long-term observation of levels on several channels, and the PicoScope software suits waveshape analysis. Neither instrument is a better version of the other.
BenchRove does not pick a winner. Each value and statement carries its own label: Documented (from a primary source), Inferred (reasoned from sources) or Unverified. No prices are shown. How we verify
What each side means here
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Product line
PicoScope 2000 Series
USB oscilloscopes shown with the entry 2204A and the top 2-channel 2208B. PicoScope 7 is the software (separate record).
Shown with:
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Category
DAQ hardware
Only one DAQ device has a full record: LabJack T7. NI CompactDAQ is a stub and is not compared. There is no generic DAQ category record.
Shown with:
Side by side
Values come from each product's own BenchRove record. A blank cell means our records have no sourced value for it.
| Field | PicoScope 2000 SeriesPicoScope 2204A | PicoScope 2000 SeriesPicoScope 2208B | DAQ hardwareLabJack T7 | PicoScope 2000 Series |
|---|---|---|---|---|
| Analog bandwidth (-3 dB) | 10 MHz Evidence: DocumentedSource (1)
| 100 MHz Evidence: DocumentedSource (1)
| No bandwidth figure in the T7 record; DAQ data sheets usually specify sample rate and settling instead. | Up to 100 MHz (10-100 MHz by model) Evidence: DocumentedSource (1)
|
| Fastest samplingScope: real-time, per instrument. T7: total stream rate shared across channels. | 100 MS/s (1 ch), 50 MS/s (2 ch) Evidence: DocumentedSource (2)
| 1 GS/s (1 ch), 500 MS/s (2 ch) Evidence: DocumentedSource (2)
| 100 kS/s total (stream) Evidence: DocumentedSource (1)
| Up to 1 GS/s (1 ch; fastest models) Evidence: DocumentedSource (1)
|
| Continuous streaming to the PC | 1 MS/s Evidence: DocumentedSource (1)
| 9.6 MS/s (31 MS/s with PicoSDK) Evidence: DocumentedSource (1)
| Up to 100 kS/s total; Ethernet fastest Evidence: DocumentedSource (2)
| No series-wide streaming figure in the series record; see the 2204A and 2208B columns. |
| Resolution | 8 bits Evidence: DocumentedSource (1)
| 8 bits Evidence: DocumentedSource (1)
| 16-18+ bits Evidence: DocumentedSource (1)
| 8 bits (up to 12 with resolution enhancement) Evidence: DocumentedSource (1)
|
| Analog inputs | 2 Evidence: DocumentedSource (1)
| 2 Evidence: DocumentedSource (1)
| 14 single-ended / 7 differential Evidence: DocumentedSource (2)
| 2 or 4, by model Evidence: DocumentedSource (1)
|
| Input ranges | +/-50 mV to +/-20 V Evidence: DocumentedSource (1)
| +/-20 mV to +/-20 V Evidence: DocumentedSource (1)
| +/-10 V to +/-0.01 V Evidence: DocumentedSource (1)
| No series-wide input range in the series record; see the 2204A and 2208B columns. |
| Capture memory | 8 kS block-mode buffer Evidence: DocumentedSource (1)
| 128 MS Evidence: DocumentedSource (1)
| Streams to the host computer Evidence: DocumentedSource (1)
| Up to 128 MS (2208B/2408B) Evidence: DocumentedSource (1)
|
| Signal outputs | Function generator/AWG (~100 kHz max) Evidence: DocumentedSource (2)
| Function generator to 1 MHz; AWG Evidence: DocumentedSource (1)
| 2 analog outputs (12-bit) + 23 digital I/O Evidence: DocumentedSource (2)
| Function generator and AWG on every model Evidence: DocumentedSource (1)
|
| Software | PicoScope 7 (free; Windows, macOS, Linux) Evidence: DocumentedSource (1)
| PicoScope 7; PicoSDK for your own code Evidence: DocumentedSource (1)
| LJM library (Python, MATLAB, LabVIEW, C/C++, C#) Evidence: DocumentedSource (1)
| Windows, macOS, Linux (Raspberry Pi 4B/5: PicoLog 6 and drivers only, not PicoScope 7) Evidence: DocumentedSource (1)
|
| Runs without a PC? | No; USB-powered PC instrument Evidence: DocumentedSource (1)
| No; USB-powered PC instrument Evidence: DocumentedSource (1)
| Yes, with on-board Lua scripts Evidence: DocumentedSource (1)
| No; USB-powered PC instrument Evidence: DocumentedSource (1)
|
What they have in common
Both are USB instruments that turn voltages into data on a computer, and both come with free vendor software and libraries for your own code, including LabVIEW, MATLAB and Python. Evidence: Documented
Evidence (3)
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All PicoScope 2000 Series models are powered from the USB port and connect over USB 2.0. Evidence: Documented
From PicoScope 2000 Series · Pico Technology · Overview text; specification tables (Vertical, Horizontal, Software, General) · retrieved 2026-10-16
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PicoSDK is a free software development kit with drivers for Windows, macOS and Linux; Pico's example code covers LabVIEW, MATLAB, C/C++, C# and Python, and the drivers support gap-free streaming to the PC (rates subject to PC specifications and application loading). Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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LJM is LabJack's free, cross-platform (Windows, macOS, Linux including Raspberry Pi) library for T-series devices, MIT X11-licensed, with LabJack-maintained wrappers for languages including C/C++, Python, MATLAB, C# .NET and LabVIEW. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · LJM Library Overview: intro, Features, Cross-Platform, Supported In Multiple Languages · retrieved 2026-10-19
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Both can also produce signals: the PicoScopes have a built-in function/arbitrary waveform generator, and the T7 has two analog outputs and digital I/O. Evidence: Documented
Evidence (2)
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Every model includes a built-in function generator and arbitrary waveform generator. Evidence: Documented
From PicoScope 2000 Series · Pico Technology · Overview text; specification tables (Vertical, Horizontal, Software, General) · retrieved 2026-10-16
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analog_outputs: 2 count Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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Key differences
They are built for different jobs. A scope samples very fast for a short time so you can see the shape of a signal: edges, glitches, ringing, the exact timing of a pulse. The T7, the DAQ device shown here, samples more slowly but reads more channels at finer resolution and streams them to the computer. Pico itself sends long-term multi-channel level logging to PicoLog and waveshape analysis to PicoScope. Evidence: Documented
Evidence (5)
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Pico Technology states that PicoLog 6 (sample rates up to 1 kS/s per channel) is ideal for long-term observation of general parameters such as voltage or current levels on several channels at the same time, and less suitable for waveshape or harmonic analysis, for which the PicoScope software should be used. Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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The T7 maximum stream sample rate is 100 ksamples/second in total; for multi-channel streams this applies only at resolution index 0 or 1 with all analog inputs on the +/-10 V range, and sample rate = number of channels x scan rate (for example 5 channels give at most 20 kscans/second). Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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analog_inputs: 14 count Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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analog_input_resolution: 16 bit Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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In stream mode the LabJack device collects data and streams it to the host computer; Ethernet gives the fastest stream rates, USB is typically a little slower and WiFi much slower. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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Speed vs resolution: the entry 2204A samples at up to 100 MS/s (the 2208B at 1 GS/s) with 8-bit resolution. The T7 streams up to 100 kS/s in total with 16 bits or more. That is about a thousandfold difference in speed, traded for resolution and channel count. Evidence: Inferred
Evidence (3)
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PicoScope 2000 Series 2-channel data sheet: maximum real-time sampling is 100 MS/s (1 channel) / 50 MS/s (2 channels) on the 2204A and 1 GS/s / 500 MS/s on the 2208B; maximum USB streaming rate is 1 MS/s on the 2204A and 9.6 MS/s on the 2208B (31 MS/s with PicoSDK). Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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The T7 maximum stream sample rate is 100 ksamples/second in total; for multi-channel streams this applies only at resolution index 0 or 1 with all analog inputs on the +/-10 V range, and sample rate = number of channels x scan rate (for example 5 channels give at most 20 kscans/second). Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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Arithmetic on documented figures: the 2204A real-time maximum (100 MS/s, one channel) is 1,000 times the T7 total stream maximum (100 kS/s), while the T7 has 16-bit vs 8-bit resolution and 14 vs 2 analog inputs. Measurement modes differ, so this is an order-of-magnitude illustration, not a benchmark. Evidence: Inferred
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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Bandwidth is a scope specification: 10 MHz on the 2204A and 100 MHz on the 2208B, measured at -3 dB. It tells you roughly how fast a signal can change before the scope starts to round it off. The T7 record has no comparable figure. Evidence: Documented
Evidence (2)
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PicoScope 2204A: 10 MHz bandwidth (-3 dB), 100 MS/s maximum real-time sampling, 8 kS block-mode buffer, 8-bit vertical resolution, 2 analog channels. Evidence: Documented
From PicoScope 2204A · Pico Technology · Specification tables: Vertical, Horizontal, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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bandwidth_max: 100 MHz Evidence: Documented
From PicoScope 2208B · Pico Technology · Specification tables: Vertical, Horizontal, Dynamic performance, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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Channels: the 2-channel PicoScopes compare a few signals at once; the T7 reads 14 single-ended or 7 differential inputs, one after another. Evidence: Documented
Evidence (3)
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analog_channels_scope: 2 count Evidence: Documented
From PicoScope 2204A · Pico Technology · Specification tables: Vertical, Horizontal, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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The T7 has 14 analog inputs (single-ended) or 7 differential, with programmable gains of x1, x10, x100 and x1000. Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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The T8 is the only T-series device that samples its analog inputs simultaneously; the T7 samples them sequentially, one after another. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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Memory and streaming: a scope captures into its own buffer (8 kS on the 2204A, 128 MS on the 2208B) or streams more slowly (1 MS/s and 9.6 MS/s). The T7 streams everything to the computer. Evidence: Documented
Evidence (4)
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buffer_memory_max: 0.008 MS Evidence: Documented
From PicoScope 2204A · Pico Technology · Specification tables: Vertical, Horizontal, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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buffer_memory_max: 128 MS Evidence: Documented
From PicoScope 2208B · Pico Technology · Specification tables: Vertical, Horizontal, Dynamic performance, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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PicoScope 2000 Series 2-channel data sheet: maximum real-time sampling is 100 MS/s (1 channel) / 50 MS/s (2 channels) on the 2204A and 1 GS/s / 500 MS/s on the 2208B; maximum USB streaming rate is 1 MS/s on the 2204A and 9.6 MS/s on the 2208B (31 MS/s with PicoSDK). Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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In stream mode the LabJack device collects data and streams it to the host computer; Ethernet gives the fastest stream rates, USB is typically a little slower and WiFi much slower. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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Independence: the PicoScope 2000s are powered from and run by a PC. The T7 can run Lua scripts on its own. Evidence: Documented
Evidence (2)
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All PicoScope 2000 Series models are powered from the USB port and connect over USB 2.0. Evidence: Documented
From PicoScope 2000 Series · Pico Technology · Overview text; specification tables (Vertical, Horizontal, Software, General) · retrieved 2026-10-16
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T-series devices support on-board Lua scripting for headless operation. Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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When PicoScope 2000 Series fits
Choose a PicoScope when you need to see what a signal looks like: debugging a circuit, checking a PWM or clock waveform, looking for noise or glitches, or measuring timing between two signals. Evidence: Documented
Evidence (2)
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Pico Technology states that PicoLog 6 (sample rates up to 1 kS/s per channel) is ideal for long-term observation of general parameters such as voltage or current levels on several channels at the same time, and less suitable for waveshape or harmonic analysis, for which the PicoScope software should be used. Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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PicoScope 2208B (listed with 2408B and 2208B MSO in one column): 100 MHz bandwidth, 1 GS/s real-time sampling, 128 MS block-mode buffer, 8-bit vertical resolution. Evidence: Documented
From PicoScope 2208B · Pico Technology · Specification tables: Vertical, Horizontal, Dynamic performance, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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Choose the 2208B over the 2204A for faster signals (100 MHz vs 10 MHz bandwidth) and much deeper memory (128 MS vs 8 kS). Evidence: Documented
Evidence (2)
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PicoScope 2208B (listed with 2408B and 2208B MSO in one column): 100 MHz bandwidth, 1 GS/s real-time sampling, 128 MS block-mode buffer, 8-bit vertical resolution. Evidence: Documented
From PicoScope 2208B · Pico Technology · Specification tables: Vertical, Horizontal, Dynamic performance, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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PicoScope 2204A: 10 MHz bandwidth (-3 dB), 100 MS/s maximum real-time sampling, 8 kS block-mode buffer, 8-bit vertical resolution, 2 analog channels. Evidence: Documented
From PicoScope 2204A · Pico Technology · Specification tables: Vertical, Horizontal, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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When DAQ hardware fits
Choose a DAQ device such as the LabJack T7 when you need many channels logged over a long time (temperatures, pressures, slowly changing voltages), small or bipolar signals with gain, or digital I/O to run an experiment while you measure it. Evidence: Documented
Evidence (3)
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The T7 has 14 analog inputs (single-ended) or 7 differential, with programmable gains of x1, x10, x100 and x1000. Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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gpio_pins: 23 count Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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LJM is LabJack's free, cross-platform (Windows, macOS, Linux including Raspberry Pi) library for T-series devices, MIT X11-licensed, with LabJack-maintained wrappers for languages including C/C++, Python, MATLAB, C# .NET and LabVIEW. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · LJM Library Overview: intro, Features, Cross-Platform, Supported In Multiple Languages · retrieved 2026-10-19
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Using them together
Many test setups need both: the DAQ logs the slow signals all day, and the scope captures the fast event when it happens. Pico documents PicoLog 6 showing oscilloscope data alongside a data logger (its example plots scope voltage and current against thermocouple temperature). Evidence: Documented
Evidence (1)
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Pico states PicoLog 6 can show oscilloscope data alongside a data logger or other device, for example PicoScope voltage and current plotted against temperature from a TC-08 thermocouple data logger. Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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In LabVIEW or Python, one program can drive both instruments: Pico provides LabVIEW and Python examples for PicoSDK, and LabJack maintains LabVIEW and Python wrappers for LJM. This is an inference that the two can share one program, and it has not been tested by BenchRove. Evidence: Documented
Evidence (2)
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PicoSDK is a free software development kit with drivers for Windows, macOS and Linux; Pico's example code covers LabVIEW, MATLAB, C/C++, C# and Python, and the drivers support gap-free streaming to the PC (rates subject to PC specifications and application loading). Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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LJM is LabJack's free, cross-platform (Windows, macOS, Linux including Raspberry Pi) library for T-series devices, MIT X11-licensed, with LabJack-maintained wrappers for languages including C/C++, Python, MATLAB, C# .NET and LabVIEW. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · LJM Library Overview: intro, Features, Cross-Platform, Supported In Multiple Languages · retrieved 2026-10-19
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Caveats and limits
Coverage gap: "DAQ hardware" is represented only by the LabJack T7. NI CompactDAQ is a stub, and there is no generic DAQ category record. Other DAQ devices (for example simultaneous-sampling ones) behave differently. Evidence: Documented
Evidence (1)
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The T8 is the only T-series device that samples its analog inputs simultaneously; the T7 samples them sequentially, one after another. Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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Rates are not like-for-like: scope real-time sampling is per instrument (shared between active channels), and the T7 rate is a total stream rate under stated settings. Evidence: Documented
Evidence (2)
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PicoScope 2000 Series 2-channel data sheet: maximum real-time sampling is 100 MS/s (1 channel) / 50 MS/s (2 channels) on the 2204A and 1 GS/s / 500 MS/s on the 2208B; maximum USB streaming rate is 1 MS/s on the 2204A and 9.6 MS/s on the 2208B (31 MS/s with PicoSDK). Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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The T7 maximum stream sample rate is 100 ksamples/second in total; for multi-channel streams this applies only at resolution index 0 or 1 with all analog inputs on the +/-10 V range, and sample rate = number of channels x scan rate (for example 5 channels give at most 20 kscans/second). Evidence: Documented
From LabJack vs Arduino for data acquisition · LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19
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Resolution is not accuracy. The PicoScope 2000 data sheet gives DC accuracy of +/-3% of full scale +/-200 uV; the T7 accuracy specifications were not reviewed. Isolation and calibration were not reviewed for either instrument, and neither is described here as isolated. Evidence: Documented
Evidence (1)
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PicoScope 2000 Series 2-channel data sheet: DC accuracy is +/-3% of full scale +/-200 uV on all five 2-channel models (2204A to 2208B). Evidence: Documented
Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
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Safety: both are low-voltage instruments (PicoScope input ranges up to +/-20 V; T7 up to +/-10 V). This page gives no guidance on measuring mains or other high-voltage circuits. Evidence: Documented
Evidence (2)
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The 2204A has input ranges of +/-50 mV to +/-20 V, 1 Mohm input, +/-100 V overvoltage protection, and no analog offset. Evidence: Documented
From PicoScope 2204A · Pico Technology · Specification tables: Vertical, Horizontal, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18
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analog_input_ranges: ±10, ±1, ±0.1, ±0.01 V Evidence: Documented
From LabJack T7 · LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16
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Scope notes from BenchRove
What this page does and does not cover. These describe our review, not the products, so they carry no evidence label.
- Category: oscilloscope vs DAQ device. They do different jobs, and the rows show the trade-offs, not a winner.
- Documentation review only; nothing on this page was tested on hardware by BenchRove. No prices are given.
Guides
Compare specs in the table tool
Sources
Last updated 2026-10-19. Audited by BenchRove (documentation review; nothing was tested hands-on).
- Pico Technology · p.4 "PicoSDK - write your own apps"; p.15 "PicoLog 6 software"; p.18 2-channel specifications table, "Maximum sampling rate (real-time)", "(USB streaming)" and "DC accuracy" rows · retrieved 2026-10-19
- Pico Technology · Specification tables: Vertical, Horizontal, Function generator, Arbitrary waveform generator, Software, General · retrieved 2026-10-18 · via PicoScope 2204A
- LabJack · 3.2 Stream Mode: "T4 / T7" max-rate section; Stream-In and/or Stream-Out; 16-bit data; Simultaneous Sampling - T8 Only · retrieved 2026-10-19 · via LabJack vs Arduino for data acquisition
- LabJack · 1.0 Device Overview: T7 section; T7 vs T7-Pro · retrieved 2026-10-16 · via LabJack T7
- Pico Technology · PicoScope 7 Software product page, header and overview · retrieved 2026-10-18 · via PicoScope 7
- LabJack · LJM Library Overview: intro, Features, Cross-Platform, Supported In Multiple Languages · retrieved 2026-10-19 · via LabJack vs Arduino for data acquisition