Abstract: A device, system, and method for solar cell construction and bonding/layer transfer are disclosed herein. An exemplary structure of solar cell construction involves providing a monocrystalline donor layer. A solder bonding layer bonds the donor layer to a carrier substrate. A porous layer may be used to separate the donor layer.

Abstract: The present application is directed to a selectively deployable fin system which includes at least one housing positioned within a body of a standup paddleboard, the housing defining at least one housing passage therein, at least one actuator is positioned within the housing. The actuator is configured to be operable by a user positioned on the standup paddleboard or similar watercraft during use. At least one linkage system, in communication with the actuator, is positioned within the housing. In addition, at least one fin is in communication with the actuator via the linkage device. The fin is configured to be selectively positioned within the housing in a retracted configuration and selectively extending from the housing in a deployed configuration.

Abstract: The present application is directed to a selectively deployable fin system which includes at least one housing positioned within a body of a standup paddleboard, the housing defining at least one housing passage therein, at least one actuator is positioned within the housing. The actuator is con figured to be operable by a user positioned on the standup paddleboard or similar watercraft during use. At least one linkage system, in communication with the actuator, is positioned within the housing. In addition, at least one fin is in communication with the actuator via the linkage device. The fin is configured to be selectively positioned within the housing in a retracted configuration and selectively extending from the housing in a deployed configuration.

Abstract: A device, system, and method for solar cell construction and bonding/layer transfer are disclosed herein. An exemplary structure of solar cell construction involves providing a monocrystalline donor layer. A solder bonding layer bonds the donor layer to a carrier substrate. A porous layer may be used to separate the donor layer.

Abstract: Strain is induced in a semiconductor layer. Embodiments include inducing strain by, for example, creation of free surfaces.

Abstract: Strain is induced in a semiconductor layer. Embodiments include inducing strain by, for example, creation of free surfaces.

Abstract: A smart network may include a smart network host device as well as one or more client devices configured to connect to the smart network. Each of the client devices may implement one or more services that the client device exposes to other devices connected to the smart network. A client device configured to connect to the smart network may implement one or more modules configured to facilitate connecting to the smart network, registering the client device or services running on the client device with the smart network, diagnosing issues with the client device or the smart network, and upgrading the firmware of the client device. The client device may be configured to perform the various operations with minimal input from an owner of the smart network.

Abstract: Strain is induced in a semiconductor layer. Embodiments include inducing strain by, for example, creation of free surfaces.

Abstract: A smart network may include a smart network host device as well as one or more client devices configured to connect to the smart network. Each of the client devices may implement one or more services that the client device exposes to other devices connected to the smart network. Each of the client devices includes network layer 2 and 3 attributes as well as network layer 7 application attributes. The application attributes are enumerated as named services, which each client device registers with the smart network host device. When a client device needs access to a named service, the smart network host device uses layer 2, 3, and 7 attributes associated with the client device to select a suitable server for providing the named service to the client device.

Abstract: The present invention provides an automated system and method for maintaining compaction, and therefore increased efficiency, of a media bed within a chromatography column. In the preferred embodiment, an adjustment assembly is slidingly engaged inside one end of the column such that it can be moved along the column's major axis. When idle, the force exerted on this end is equal to the compression on the media. When the column is actively processing chromatographic fluid, this exerted force can be expressed as the sum of the compression on the media, and the force of the fluid being processed. This total force and the fluid pressure are monitored using a load cell and a pressure sensor respectively. The compression force operating on the media bed is then computed based on these measurements and compared to the optimal value. The position of the adjustment assembly within the column is then modified in response to changes in the measured compression force.

Abstract: The disclosed invention relates to a rack and a rack system removeably attachable to a snow plow, the rack comprising: a base; a first vertical member extending generally orthogonally from the base; a second vertical member extending generally orthogonally from the base; a first and second attachment members both with a distal end and a proximal end, with the proximal ends attached to from generally the top of the first and second vertical member respectively, and the first and second attachment members: extending orthogonally from generally the top of the first and second vertical members respectively and configured to extend towards a snow plow, and the distal ends configured to each attach to generally the top of a snow plow; where the rack is configured to attach to the scoop end of a snow plow and to carry items.

Abstract: One embodiment of the present invention sets forth a method for interacting with one or more client devices coupled to a smart network host device within a smart home network. The method includes the steps of identifying a first application that is associated with at least one client device and stored in an first application store coupled to a smart home network, downloading the first application from the first application store for execution, associating a service that is exposed by the at least one client device with the first application, translating a high-level instruction generated by the first application via the service to a low-level instruction that is understood by the at least one client device, and transmitting the low-level instruction to the at least one client device for processing.

Abstract: One embodiment of the present invention sets forth a method for interacting with one or more client devices coupled to a smart network host device within a smart home network. The method includes the steps of identifying a first application that is associated with at least one client device and stored in an first application store coupled to a smart home network, downloading the first application from the first application store for execution, associating a service that is exposed by the at least one client device with the first application, translating a high-level instruction generated by the first application via the service to a low-level instruction that is understood by the at least one client device, and transmitting the low-level instruction to the at least one client device for processing.

Abstract: A device, system, and method for solar cell construction and bonding/layer transfer are disclosed herein. An exemplary structure of solar cell construction involves providing a monocrystalline donor layer. A solder bonding layer bonds the donor layer to a carrier substrate. A porous layer may be used to separate the donor layer.

Abstract: The present invention provides an automated system and method for packing chromatography columns. In one embodiment, the system first determines the type of media that is present in the column, and uses this information to generate an automated procedure to pack the specific media type. In a second embodiment, the media type is made known to the system, such as via input from the operator. The system then uses this information, in the same manner as in the first embodiment, to generate an automated procedure to pack the specific media type. Finally, in a third embodiment, parameters such as column height and rate of compression are made known to the system, such as via input from the operator. The system then packs the column in accordance with these supplied parameters.

Abstract: A smart network may include a smart network host device as well as one or more client devices configured to connect to the smart network. Each of the client devices may implement one or more services that the client device exposes to other devices connected to the smart network. Each of the client devices includes network layer 2 and 3 attributes as well as network layer 7 application attributes. The application attributes are enumerated as named services, which each client device registers with the smart network host device. When a client device needs access to a named service, the smart network host device uses layer 2, 3, and 7 attributes associated with the client device to select a suitable server for providing the named service to the client device.

Abstract: A smart network may include a smart network host device as well as one or more client devices configured to connect to the smart network. Each of the client devices may implement one or more services that the client device exposes to other devices connected to the smart network. A client device configured to connect to the smart network may implement one or more modules configured to facilitate connecting to the smart network, registering the client device or services running on the client device with the smart network, diagnosing issues with the client device or the smart network, and upgrading the firmware of the client device. The client device may be configured to perform the various operations with minimal input from an owner of the smart network.

Abstract: Strain is induced in a semiconductor layer. Embodiments include inducing strain by, for example, creation of free surfaces.

Abstract: Strain is induced in a semiconductor layer. Embodiments include inducing strain by, for example, creation of free surfaces.

Abstract: The present invention provides an automated system and method for maintaining compaction, and therefore increased efficiency, of a media bed within a chromatography column. In the preferred embodiment, an adjustment assembly is slidingly engaged inside one end of the column such that it can be moved along the column's major axis. When idle, the force exerted on this end is equal to the compression on the media. When the column is actively processing chromatographic fluid, this exerted force can be expressed as the sum of the compression on the media, and the force of the fluid being processed. This total force and the fluid pressure are monitored using a load cell and a pressure sensor respectively. The compression force operating on the media bed is then computed based on these measurements and compared to the optimal value. The position of the adjustment assembly within the column is then modified in response to changes in the measured compression force.