Advanced Non-Invasive Optical Detection System with Adaptive Masking

An enhanced non-invasive optical detection system that dynamically adjusts the optical masking zone to improve signal quality and accuracy, enabling more efficient and reliable detection of physiologically dependent optical parameters in the human body.

The original patent's non-invasive optical detection system had limitations in adapting to changes in the scattering medium, resulting in reduced signal-to-noise ratio and accuracy. The new inventive concept addresses these limitations by introducing an improved acoustic assembly with a variable frequency ultrasound source, real-time feedback loop, and adaptive sampling rates, ensuring optimal optical masking zone creation and detection.

The advanced non-invasive optical detection system comprises an improved acoustic assembly with a variable frequency ultrasound source, which dynamically adjusts the optical masking zone in response to changes in the scattering medium. This is achieved through a real-time feedback loop that optimizes the optical masking zone for maximum signal-to-noise ratio. The system also incorporates an interferometer with adaptive sampling rates to detect the optical parameter. Additionally, a machine learning-based algorithm can be integrated to predict and correct for optical parameter variations due to changes in the scattering medium over time. The system can further utilize a combination of ultrasound and light-sheet microscopy to create a high-resolution, three-dimensional optical masking zone.

The new inventive concept introduces several novel features, including the adaptive acoustic assembly, real-time feedback loop, and machine learning-based algorithm, which collectively provide an inventive step beyond the original patent. These advancements enable more efficient and reliable detection of physiologically dependent optical parameters, overcoming the limitations of the original patent.

Alternative embodiments of the inventive concept could include using different types of ultrasound sources, such as phased arrays or laser-induced ultrasound, or integrating other sensing modalities, like electrical impedance tomography or magnetoencephalography. Variations of the system could also be designed for specific applications, such as brain-computer interfacing or neuromodulation therapies.

The advanced non-invasive optical detection system has significant commercial potential in the medical diagnostics, neuromodulation therapies, neuroengineering, and brain-computer interfacing industries. The system's ability to provide accurate and reliable detection of physiologically dependent optical parameters could lead to breakthroughs in these fields, enabling new treatments and therapies.