The accelerating demand for remote patient monitoring and home-based care solutions is reshaping healthcare delivery worldwide. As chronic diseases rise and healthcare systems face resource constraints, non-invasive, continuous diagnostic tools are becoming essential. This technology directly addresses these trends by providing a convenient, high-accuracy method for early disease detection, reducing the burden on clinical facilities and empowering individuals with proactive health management capabilities.
Enhances diagnostic accuracy by precisely capturing subtle myoacoustic signals with a low-noise accelerometer (below 100μG/√Hz).
Reduces patient burden by enabling non-invasive, attachable monitoring for remote and daily diagnostics outside clinical settings.
Facilitates early disease detection by analyzing high-frequency components of myoacoustic signals, potentially identifying initial signs often missed by conventional methods.
This patent establishes robust protection for a diagnostic device featuring a low-noise accelerometer and a processing unit that analyzes high-frequency myoacoustic signals. With 12 claims, it covers a broad and stable scope, having successfully navigated examination against 8 prior art documents, indicating strong validity and low invalidation risk.
This patent primarily covers the core sensor and processing for human myoacoustic diagnosis. White space exists for developing advanced AI-driven predictive analytics based on the collected data, or for applying similar low-noise sensing principles to industrial machinery health monitoring.
Early disease detection could reduce average treatment costs by ~20%. For 100,000 individuals diagnosed annually, an average treatment cost reduction of $50/person (AI est.) could lead to a total annual medical cost saving of ~$5M (AI est.). If a licensee captures 10% of this market, an annual economic impact of ~$1M (AI est.) could be generated.
X: Diagnostic Accuracy and Resolution
Y: Non-invasiveness and Convenience