Smart Fracture Stabilization System

A wearable device integrating a patented fracture brace with AI, IoT, and blockchain technologies to provide real-time feedback, optimize treatment, and securely store patient data.

Current methods of treating finger fractures are inadequate, restricting hand use and compromising optimal healing. The original patent introduced a novel fracture brace, but it lacked real-time monitoring and data-driven treatment optimization. The new inventive concept addresses these limitations by integrating distinct technologies to create a more powerful system.

The Smart Fracture Stabilization System comprises a wearable device featuring the patented fracture brace with a splint configured to contact a finger at three spaced-apart locations. The system integrates a sensor for detecting finger movement, providing real-time feedback to the user. Additionally, it incorporates an AI-powered algorithm for predicting optimal treatment pathways based on patient data and finger movement patterns. The system also utilizes a blockchain-based platform for securely storing and sharing patient data. This synergistic combination enables personalized treatment plans, remote monitoring, and data-driven recovery optimization.

The new inventive concept's novelty lies in the integration of the patented fracture brace with AI, IoT, and blockchain technologies, providing a holistic system for fracture stabilization and recovery. The inventive step is the synergistic combination of these distinct technologies to create a more powerful system, which is non-obvious compared to the original patent.

Alternative embodiments could include varying sensor types, AI algorithm modifications, or blockchain platform integrations. Variations could also involve adapting the system for different types of fractures or injuries, or integrating additional features such as virtual reality rehabilitation tools.

The Smart Fracture Stabilization System has significant commercial potential in the healthcare and medical device industries, particularly in the fields of orthopedics, sports medicine, and physical therapy. The system's ability to optimize treatment and reduce recovery time could lead to widespread adoption in hospitals, clinics, and rehabilitation centers.