Advanced Ultrasound Method and Apparatus with Real-time Optimization and Enhanced Image Quality

An improved ultrasound method and apparatus that incorporates real-time optimization, machine learning algorithms, and advanced sensor integration to enhance image quality, accuracy, and performance.

Conventional ultrasound systems often suffer from limited resolution, view-dependent artefacts, and difficulties in assessing yielded information. The original patent addressed these limitations by providing an ultrasound method and apparatus with coincident region signal transmission and wavefront reception. However, there remains a need for further improvements to overcome the inherent limitations of the existing patent. The new inventive concept solves this problem by introducing adaptive transmission frequencies, machine learning algorithms, integrated sensors, and spatially-varying apodization techniques to optimize imaging performance and enhance image quality.

The advanced ultrasound method and apparatus comprise adaptive ultrasound transmitters that dynamically adjust their transmission frequencies to optimize imaging performance in real-time. The system incorporates machine learning algorithms to predict and compensate for tracking system noise and calibration errors, ensuring accurate and reliable image reconstruction. Integrated sensors enable real-time tracking and calibration, allowing for subwavelength localization accuracy. Furthermore, the system features a compact, ergonomic probe with a dynamically adjustable aperture size, enabling improved image performance without increasing physical dimensions. Spatially-varying apodization techniques are employed to optimize the coherent aperture size and shape, enhancing image resolution.

The new claims introduce several novel and non-obvious features, including adaptive transmission frequencies, machine learning algorithms for noise compensation, integrated sensors for real-time tracking and calibration, and spatially-varying apodization techniques. These advancements provide a significant improvement over the original patent, enabling real-time optimization, enhanced image quality, and improved performance.

Alternative embodiments of the inventive concept could include the use of different machine learning algorithms, varying sensor configurations, or alternative apodization techniques. Additionally, the system could be adapted for use in various medical or industrial applications, such as cardiovascular imaging, cancer diagnosis, or material inspection.

The advanced ultrasound method and apparatus have significant commercial potential in the medical imaging and diagnostics market, as well as in industrial inspection and quality control applications. The enhanced image quality, accuracy, and performance provided by the new inventive concept could lead to improved patient outcomes, reduced healthcare costs, and increased efficiency in industrial processes.