Synergistic Endoscopic Optoacoustic Imaging Systems

This inventive concept integrates the patented device for endoscopic optoacoustic imaging with other distinct technologies, such as AI, IoT, blockchain, and new materials, to create a more powerful system for imaging and analyzing cavities and hollow objects.

The original patent disclosed a device for endoscopic optoacoustic imaging, which has limitations in terms of data security, real-time monitoring, and personalized diagnosis. This new inventive concept addresses these limitations by incorporating synergistic combinations of technologies to enhance the imaging process and provide more accurate diagnoses.

The system for endoscopic optoacoustic imaging of cavities and hollow objects comprises a device for endoscopic optoacoustic imaging, as described in claim 1, and integrates it with a blockchain-based data storage unit for secure storage and sharing of the generated optoacoustic images. Additionally, the system may include an IoT-based communication module for transmitting the generated optoacoustic images to a remote monitoring station, an artificial intelligence algorithm for enhanced image analysis and diagnosis, or a nanomaterial-based sensor for detecting biomarkers in the object. The inventive concept enables real-time monitoring, secure data storage, and personalized medicine using endoscopic optoacoustic imaging.

The new claims introduce the concept of integrating the patented device with other distinct technologies, such as AI, IoT, blockchain, and new materials, which is not obvious from the original patent. The inventive step lies in the synergistic combination of these technologies to create a more powerful system for imaging and analyzing cavities and hollow objects.

Alternative embodiments may include integrating the device with other AI algorithms for image enhancement, using different types of nanomaterial-based sensors, or incorporating additional IoT devices for real-time monitoring. Variations may include adapting the system for use in different medical specialties or developing new materials for the nanomaterial-based sensor.

The inventive concept has significant commercial potential in the medical imaging industry, particularly in the fields of gastroenterology, pulmonology, and oncology. The system's ability to provide secure, real-time, and personalized diagnoses makes it an attractive solution for hospitals and medical research institutions.