Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes, which are arranged in a substrate to facilitate the reading and writing of information by a read/write head. The substrate may be flexible or rigid. Information is stored on the magnetic nanoparticles via the read/write head of a storage device. These magnetic nanoparticles are arranged into data tracks to store information through encapsulation within the carbon nanotubes. As carbon nanotubes are bendable, the carbon nanotubes may be arranged on flexible or rigid substrates, such as a polymer tape or disk for flexible media, or a glass substrate for rigid disk. A polymer may assist holding the nanoparticle-filled carbon tubes to the substrate.

Abstract: A graphene coated optic fiber is disclosed. An optic fiber core is encapsulated within a graphene capsule. An optic fiber having cladding layer encapsulated within a graphene capsule is also disclosed. The graphene capsule may comprise a single layer of graphene, bi-layer of graphene, or multiple layers of graphene. An optical circuit is disclosed that transmits ultraviolet light across an optic fiber encapsulated with graphene.

Abstract: A financial card activation and authorization system for a transaction is disclosed. An image of an account holder and his financial card is captured and used to develop an encryption key to secure the account information. Subsequent transactions are then authorized by sending an image of the purchaser's face and the financial card by comparing it to the original picture of the account holder who activated the card.

Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes), which are arranged in a substrate to facilitate the reading and writing of information by a read/write head. The substrate may be flexible or rigid. Information is stored on the magnetic nanoparticles via the read/write head of a storage device. These magnetic nanoparticles are arranged into data tracks to store information through encapsulation within the carbon nanotubes. As carbon nanotubes are bendable, the carbon nanotubes may be arranged on flexible or rigid substrates, such as a polymer tape or disk for flexible media, or a glass substrate for rigid disk. A polymer may assist holding the nanoparticle-filled carbon tubes to the substrate.

Abstract: Optical fiber amplifiers are disclosed that utilize optic fibers encapsulated by graphene as the gain medium. Doped fiber optic amplifiers utilize optic fibers that are doped with a rare earth element for the gain medium that is encapsulated by graphene. Raman fiber optic amplifiers utilize an undoped fiber as the gain medium that is encapsulated by graphene.

Abstract: A differential displacement sensor is disclosed that includes a pair of aligned stationary carbon nanostructures and a moveable carbon nanostructure. The moveable carbon nanostructure is configured to engage and move with respect to the pair of aligned stationary carbon nanostructures throughout a range of motion. Circuitry applies an excitation voltage across the pair of aligned stationary carbon nanostructures and the moveable carbon nanostructure to generate an output voltage proportional to a displacement of the moveable carbon nanostructure with respect to the pair of aligned stationary carbon nanostructures throughout the range of motion. Graphene sheets or carbon nanotubes may form the moveable carbon nanostructure or the pair of aligned stationary carbon nanostructures.

Abstract: A graphene coated optic-fiber laser is disclosed that includes a doped inner core and an undoped outer core surrounding the doped inner core. A graphene cylinder or capsule surrounds the undoped outer core, thereby forming a cladding layer around the undoped outer core.

Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes).

Abstract: An optical or magnetic storage medium is disclosed that includes a disc having layers of graphene on one or both sides of the disc to provide wear protection against scratches and mechanical abrasion.

Abstract: A graphene coated optic fiber is disclosed. An optic fiber core is encapsulated within a graphene capsule. An optic fiber having cladding layer encapsulated within a graphene capsule is also disclosed. The graphene capsule may comprise a single layer of graphene, bi-layer of graphene, or multiple layers of graphene. An optical circuit is disclosed that transmits ultraviolet light across an optic fiber encapsulated with graphene.

Abstract: An electronic device is disclosed having a display with a viewing area. A hardcoat protective layer covers the display. The hardcoat protective layer is formed of an atomically contiguous sheet of graphene positioned over a matrix. The graphene may also be embedded on the surface of a matrix. The graphene may also be encapsulated within a matrix.

Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes).

Abstract: A graphene coated optic fiber is disclosed that includes an optic fiber encapsulated within a graphene capsule. This graphene capsule may comprise a single layer of graphene or multiple layers of graphene. A graphene coated optic fiber is disclosed that includes a graphene end cap to protect and end portion of the optic fiber.

Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes).

Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes).

Abstract: A magnetic storage medium is formed of magnetic nanoparticles that are encapsulated within nanotubes (e.g., carbon nanotubes), which are arranged in a substrate to facilitate the reading and writing of information by a read/write head. The substrate may be flexible or rigid. Information is stored on the magnetic nanoparticles via the read/write head of a storage device. These magnetic nanoparticles are arranged into data tracks to store information through encapsulation within the carbon nanotubes. As carbon nanotubes are bendable, the carbon nanotubes may be arranged on flexible or rigid substrates, such as a polymer tape or disk for flexible media, or a glass substrate for rigid disk. A polymer may assist holding the nanoparticle-filled carbon tubes to the substrate.

Abstract: An optical or magnetic storage medium is disclosed that includes a disc having layers of graphene on one or both sides of the disc to provide wear protection against scratches and mechanical abrasion.

Abstract: A fiber optic cable is disclosed that includes an optic fiber contained within a nanotube. A graphene layer covers an end-surface of the optic fiber for wear protection.

Abstract: The present invention is a mood sensing and communicating system and method that includes a biometric sensor configured to sense biometric information from a person. A mood interpretive system is supported on a computing device or on a remote server. The mood interpretive system is in communication with the biometric sensor and is configured to assign a psychological or emotional mood state with the sensed biometric information. A communication system is supported on the computing device and is configured to communicate the assigned psychological mood state across an Internet to a web-site for positing on a web page. The method includes sensing biometric information from a user with a biometric sensor, associating a psychological mood state with the sensed biometric information with a mood interpretive module, and communicating the assigned psychological mood state to a web-site supported on a server across an Internet.

Abstract: An optical storage medium is disclosed that includes an optical disc having layers of graphene on one or both sides of the disc to provide wear protection against scratches and mechanical abrasion. Grahpene is a hard material that is 97.7% optically transparent. Thus, layers of graphene at or near the exterior sides of an optical disc provide wear protection to the optical media from mechanical abrasion and scratches while allowing laser light to pass through the graphene layers to read or write to the optical media.