

In the world of IoT vibration sensors, "convenience" often comes at the cost of "transparency." Many modern systems rely on edge processing or black-boxed AI scores, which can leave maintenance engineers unable to verify why an anomaly was detected. In this category, we pull back the curtain on vibration analysis algorithms, advocating for the preservation of raw data and explaining the sophisticated technology that makes high-precision diagnostics affordable.
To achieve true predictive maintenance, it is essential to distinguish between a simple "judgment score" and verifiable "engineering facts." We examine the fundamental requirements for equipment monitoring, comparing the limitations of edge-only processing against the long-term benefits of raw data storage. By saving raw waveforms, engineers can perform follow-up FFT analysis and prevent the "black box" effect where critical maintenance decisions are made by an unverified algorithm. We believe that raw vibration data is an asset that belongs to the factory, and its accessibility is the foundation of reliable machinery diagnostics.
Innovation in vibration monitoring is driven by our patented "under-sampling" technology, which enables high-frequency bearing diagnosis using low-cost hardware. We provide a transparent technical explanation of this mechanism, which intentionally utilizes aliasing to capture high-frequency impacts. Crucially, we also clarify the clear technical limits of this approach, such as the impossibility of precise absolute value measurement in high-frequency bands. By understanding both the strengths and the constraints of our technology, engineers can leverage raw CSV exports and Python integration to build advanced, proprietary analysis environments that surpass the capabilities of expensive, closed-box systems.
Systems that rely solely on edge processing and save only the final judgment results face a significant roadblock when trying to implement or improve AI in the future: the lack of historical waveform data for machine learning. The raw vibration data accumulated by conanair serves directly as high-quality "training data" for your machine learning initiatives. By archiving both normal operational vibrations and waveforms captured during anomalies as a proprietary corporate asset, you can train and nurture highly accurate, custom AI models perfectly tailored to the unique characteristics of your specific equipment.
By rejecting the black-box approach of edge processing, conanair puts the power of verifiable data back into the hands of your engineers. Our patented under-sampling technology and open CSV architecture allow you to build a highly customized, cost-effective predictive maintenance system without sacrificing diagnostic accuracy.