Abstract: A reconfigurable free-space optical inter-rack network includes a plurality of server racks, each including at least one switch mounted on a top thereof, where each top-mounted switch includes a plurality of free-space-optic link connector, each with a free-space optical connection to a free-space-optic link connector on another top-mounted switch, a single ceiling mirror above the plurality of server racks that substantially covers the plurality of server racks, wherein the single ceiling mirror redirects optical connections between pairs of free-space-optic link connectors to provide a clear lines-of-sight between each pair of connected free-space-optic link connectors, and a controller that preconfigures a free-space optical network connecting the plurality of server racks by establishing connections between pairs of free-space-optic link connectors, and that reconfigures connections between pairs of free-space-optic link connectors in response to network traffic demands and events.

Abstract: A reconfigurable free-space optical inter-rack network includes a plurality of server racks, each including at least one switch mounted on a top thereof, where each top mounted switch includes a plurality of free-space-optic link connector, each with a free-space optical connection to a free-space-optic link connector on another top-mounted switch, a single ceiling mirror above the plurality of server racks that substantially covers the plurality of server racks, wherein the single ceiling mirror redirects optical connections between pairs of free-space-optic link connectors to provide a clear lines-of-sight between each pair of connected free-space-optic link connectors, and a controller that preconfigures a free-space optical network connecting the plurality of server racks by establishing connections between pairs of free-space-optic link connectors, and that reconfigures connections between pairs of free-space-optic link connectors in response to network traffic demands and events.

Abstract: This invention relates to stimulation of stem cells and other progenitors of differentiated cells using nanoparticles and electromagnetic stimulation. The invention provides a method for differentiating mesenchymal stem cells (MSCs) towards osteoblasts and other connective tissue. The invention provides osteoinductive materials useful for bone regeneration and reconstruction in treatment of bone trauma and bone related diseases, and to correct birth defects. The invention also provides for reduced adipogenesis.

Abstract: A method for fabricating an electronic device comprises providing a substrate, direct writing a functional material by a thermal spray on the substrate and removing a portion of the function material to form the electronic or sensory device.

Abstract: A method for fabricating an electronic device comprises providing a substrate (501), direct writing a functional material by a thermal spray on the substrate (502) and removing a portion of the function material to form the electronic or sensory device (503).

Abstract: A differential wireless sensing device includes a first resonant device impinged on a substrate having a predetermined natural frequency, the first resonant device having a changeable resonant frequency in response to an environmental condition, and a second resonant device impinged on the substrate having a predetermined static resonant frequency.

Abstract: A method for direct writing an electrically conductive metallic feature on an insulating substrate comprises creating a gas jet comprising metallic particles (301), ejecting the gas jet comprising metallic particles through a straight bore tube (302), and impacting the gas jet comprising metallic particles onto a substrate to impinge the metallic particles on the substrate to form the electrically conductive metallic feature (303).

Abstract: A method for direct writing an electrically conductive metallic feature on an insulating substrate comprises creating a gas jet comprising metallic particles (301), ejecting the gas jet comprising metallic particles through a straight bore tube (302), and impacting the gas jet comprising metallic particles onto a substrate to impinge the metallic particles on the substrate to form the electrically conductive metallic feature (303).

Abstract: A differential wireless sensing device comprises a first resonant device (900) impinged on a substrate having a predetermined natural frequency, the first resonant device having a changeable resonant frequency in response to an environmental condition, and an second resonant device (905) impinged on the substrate having a predetermined static resonant frequency.

Abstract: A method for fabricating an electronic device comprises providing a substrate (501), direct writing a functional material by a thermal spray on the substrate (502) and removing a portion of the function material to form the electronic or sensory device (503).