Best USB Oscilloscopes of 2026

Memory is the number that separates this scope from our top pick, and it's a big one: 1 M of capture depth per channel against 8 kS. That changes what you can catch. A long serial burst, a slow-starting sensor, a fault that shows up once every few seconds — this is the scope that holds onto the whole event so you can zoom into it afterwards. Bandwidth and sample rate give ground to the PicoScope and the 6074BE at 20 MHz and 48 MS/s, but they're enough for automotive sensors, hobby circuits and supply work.

What surprised us is how substantial it feels. The case is anodized aluminum with rubber bumpers on the ends, and at 1.6 pounds it sits still on the bench instead of skating away when you tug a probe lead. Against the bare-board Labrador it's obvious where the extra goes, and this is the one here we're comfortable knocking around in a toolbox.

The software is where it gives ground. You get 20 automatic measurements, FFT, waveform math, cursors and pass/fail checking, and it all works, but the interface has the look of something that hasn't been redesigned in a decade. Install the current build from Hantek's download page rather than the copy on the bundled media; that's the one piece of setup advice worth passing on. Once it's running, it does the job without ever feeling pleasant.

Five instruments on a board that weighs twenty grams — that's the Labrador's pitch, and it's a remarkable amount of test gear for the money. A two-channel scope at 750ksps, a two-channel arbitrary waveform generator at 1MSPS per channel, a 4.5 to 15V power supply with closed-loop feedback, a two-channel logic analyzer with serial decoding, and a multimeter for volts, current, resistance and capacitance. If you're setting up a first bench, nothing else here covers this many jobs.

Audio, PWM dimming, slow sensor outputs, an Arduino's pins: that's the territory this scope is built for, and the app is simple enough that you're measuring within a few minutes of installing it. Running it from a Raspberry Pi turns a cheap board into a self-contained bench, and the Android app means a phone can stand in for a laptop when you're away from a desk. We treat it as a teaching tool and a quick signal checker, and in that role it's excellent.

Being an open-source project, the software is simpler than PicoScope 7 and occasionally shows its seams; that's the trade for the platform coverage. Windows, macOS, Linux, Android and Raspberry Pi is wider than anything else here, which makes it the pick for a classroom, a student, or a Pi-based bench where you want to try five kinds of measurement without buying five boxes.

Four channels at 70 MHz with 1 GSa/s puts this in a different class from everything else here, and the channel count is what earns it a place. Watching a crank and cam sensor plus an injector and a bus line at the same time is ordinary work for an automotive technician, and it's exactly the job two channels can't do. If you've been swapping probes mid-capture, this is the fix.

Hantek leans hard on presets: more than 80 automotive diagnostic modes covering ignition, sensors, buses, actuators, and starting and charging, so you pick the sensor type from a menu instead of dialling in timebase and trigger by hand. We found that quicker than manual setup once we knew which preset we wanted, and slower while we were still learning the menus. The four-in-one framing — oscilloscope, multimeter, DMM and waveform generator — holds up in use, and more than 20 automatic measurements plus a pass/fail check cover most bench checks.

Our reservation is the software's temperament rather than its capability. The interface is denser than the PicoScope's and assumes you already know what you're looking at, so a beginner will spend the first evening confused. For a technician with a laptop on the bench and diagnostic work to do, the extra channels and bandwidth are worth that friction. For one scope to do everything, the PicoScope remains the easier instrument to live with.