Silk-based Hybrid Systems for Advanced Materials and IoT Applications

This inventive concept integrates stable silk protein fragment compositions with cutting-edge technologies such as AI, IoT, blockchain, and advanced materials to create novel systems with enhanced properties and functionalities.

The original patent disclosed stable silk protein fragment compositions with controlled molecular weights and polydispersities. However, these compositions had limited applications due to their standalone nature. This inventive concept addresses the need for integrating these compositions with other technologies to unlock their full potential and create more powerful systems.

The inventive concept comprises five synergistic combinations: 1) a system for generating customized silk-based products using machine learning algorithms, 2) a method for integrating silk protein fragments with IoT sensors, 3) a blockchain-based platform for tracking the provenance and quality of silk protein fragment compositions, 4) a composite material combining silk protein fragments with graphene-based nanomaterials, and 5) a system for 3D printing silk-based structures with customized properties. Each combination leverages the unique properties of silk protein fragments to create novel systems with enhanced mechanical strength, biocompatibility, and environmental responsiveness.

The new claims introduce novel and non-obvious combinations of silk protein fragment compositions with distinct technologies, resulting in systems that exhibit unexpected synergies and improved performance. The inventive step lies in the recognition of the potential for silk protein fragments to enhance and interact with these technologies in meaningful ways.

Alternative embodiments may include integrating silk protein fragments with other advanced materials, such as nanocellulose or metamaterials, or using different AI algorithms to optimize the composition selection process. Variations may also involve adapting the blockchain platform for tracking the provenance of other biomaterials or using the 3D printing system to create customized implants or medical devices.

The inventive concept has significant commercial potential in various industries, including textiles, biomedical devices, and environmental monitoring. The silk-based hybrid systems can be used to create smart fabrics, implantable devices, and sustainable materials with enhanced properties, targeting a market projected to reach billions of dollars in the next decade.