Launch X431 O2-2 Scopebox Oscilloscope 4 Channel 100MHz Work with Pro3S+ V5.0, PAD V, X431 PAD VII Elite, IMMO Plus

The Launch X431 O2-2 is designed for professional mechanics, automotive electricians, diagnostic technicians, electronics specialists, and repair workshops that need more advanced diagnostic capabilities than standard fault-code scanning. With 4 channels, 100 MHz bandwidth, high-speed sampling, waveform recording, automatic measurements, advanced triggering, and compatibility with professional Launch X431 scanners, it is a powerful addition for diagnosing complex sensor, ignition, actuator, wiring, and electronic system faults.

No. The correct probe, connection method, voltage range, attenuation, and test procedure depend on the component and circuit being diagnosed. Technicians should always select the appropriate accessories and follow the correct wiring diagram and testing procedure before connecting the Scopebox.

The O2-2 and S2-2 perform different jobs. The O2-2 Scopebox captures and analyzes actual electrical waveforms, while the S2-2 Sensorbox is primarily designed to simulate sensor and actuator signals and perform electrical circuit testing. Professional workshops can use both tools together for more comprehensive electrical diagnosis.

No. The O2-2 is designed as an expansion module for compatible Launch X431 diagnostic platforms. The connected Launch scanner provides the user interface for displaying, controlling, measuring, and analyzing captured waveforms.

The O2-2 is designed to work with compatible professional Launch X431 platforms, including supported versions of X431 PRO3S+ V5.0, PAD V, PAD VII Elite, IMMO Plus, and other compatible Launch diagnostic devices. Compatibility should always be confirmed for the exact scanner model and hardware version before purchase.

They perform different functions. A multimeter is excellent for measuring values such as voltage and resistance, while the O2-2 shows how an electrical signal changes over time. For advanced diagnostics, waveform analysis can reveal signal interruptions, noise, timing errors, and other problems that a simple numerical measurement may not show.

Yes. This is one of the biggest advantages of using an automotive oscilloscope. Some electrical problems occur too quickly or intermittently to be detected with a conventional multimeter. The O2-2 can capture waveform abnormalities that help technicians identify intermittent sensor, wiring, ignition, actuator, or electronic circuit problems.

The O2-2 provides multiple trigger options designed to help technicians capture specific signal events. Available functions include Auto, Normal, and Single trigger modes, as well as Edge and Pulse Width triggering for more advanced waveform analysis.

Yes. Cursor measurement allows technicians to manually examine specific points or sections of a waveform. This can be useful for measuring voltage differences, signal duration, timing relationships, frequency, and other waveform characteristics.

Yes. Captured waveform information can be saved for further analysis. This is particularly useful when comparing a faulty vehicle with a known-good signal, documenting an intermittent problem, or reviewing diagnostic information later.

Yes. The O2-2 provides multiple automatic measurement functions that simplify waveform analysis. Instead of manually calculating every parameter, technicians can quickly obtain useful electrical information directly through the oscilloscope interface.

Many vehicle faults involve the relationship between several electronic signals rather than a single component. Four channels allow technicians to compare multiple signals in real time, making it easier to identify synchronization, timing, communication, and component-control problems.

Yes. The four-channel design allows multiple signals to be displayed and compared during the same diagnostic session. For example, a technician can compare crankshaft and camshaft signals or monitor several related sensor and actuator signals simultaneously.

Yes. Ignition-system analysis is one of the useful applications of the O2-2. With the appropriate probes and accessories, technicians can inspect ignition waveforms and compare signals between cylinders to help identify ignition coil, spark, timing, or related electrical problems.

The Scopebox can be used to analyze signals from many automotive components, including crankshaft and camshaft sensors, oxygen sensors, throttle sensors, pressure sensors, injectors, ignition coils, solenoids, actuators, electronic control circuits, and other compatible electrical components.

The Launch X431 O2-2 can achieve a sampling rate of up to 1 GS/s in supported configurations. High-speed sampling allows the oscilloscope to capture fine details in rapidly changing electrical signals and provides technicians with a clearer representation of the waveform being tested.

The O2-2 provides up to 100 MHz bandwidth. This gives the Scopebox enough performance to capture and analyze a wide variety of automotive electrical signals, including rapidly changing signals that may be difficult to diagnose with a conventional multimeter.

The O2-2 features four independent oscilloscope channels. This allows technicians to monitor several signals simultaneously and compare their relationship, which is particularly useful when diagnosing sensors, ignition systems, timing signals, actuators, and other interconnected vehicle components.

The O2-2 is designed for advanced automotive electrical and electronic diagnostics. It allows technicians to see exactly how an electrical signal behaves in real time, helping identify intermittent faults, distorted signals, incorrect voltage levels, timing problems, sensor failures, ignition problems, and wiring-related issues.

The Launch X431 O2-2 Scopebox is a professional 4-channel automotive oscilloscope designed to work with compatible Launch X431 diagnostic scanners. It allows technicians to capture, display, and analyze electrical waveforms from vehicle sensors, actuators, ignition systems, communication circuits, and other electronic components, making it especially useful for diagnosing faults that cannot be identified through fault codes alone.