mhurhangee/ep-ind-claims huggingface dataset:
A handpiece (20; 200) for driving a surgical instrument (10; 100), the handpiece characterised by comprising: two magnetic field sources (23; 228; 230) positioned to apply opposing magnetic fields to the surgical instrument and two magnetic field sensors (24; 240; 242), the magnetic field sensors being placed to detect the magnetic field applied by the magnetic field sources to the surgical instrument and diverted by a soft magnetic material (12; 112) in the surgical instrument.
A nanostructured LED (Light Emitting Diode) comprising nanowires and a contacting means, wherein each nanowire protrudes from a substrate, each nanowire comprises a pn- or p-i-n-junction and a top portion of a first selection of nanowires is covered with a light-reflecting or transparent contact layer to form at least one contact group of nanowires, and the contacting means is in electrical contact with the bottom portion of each nanowire, the light-reflecting or transparent contact layer being in electrical contact with the contacting means via the pn- or p-i-n-junction, being characterized in that the contacting means is a first group of contact pads that are distributed and separated from each other to reduce the average serial resistance; a second selection of nanowires is not covered with the light-reflecting or transparent contact layer and is electrically dead, in that the light-reflecting or transparent contact layer and a second group of distributed contact pads located on top of the light-reflecting or transparent contact layer strictly define light emitting active areas such that only the first selection is active in generation of light when a voltage is applied between the first group of contact pads and the second group of distributed contact pads, and in that the first group of contact pads and the second group of contact pads are formed as arrays perpendicular to each other, or the first group of contact pads and the second group of contact pads are formed in respective matrix patterns with a quadratic or rectangular shape that are laterally displaced in relation to each other. in that the first group of contact pads and the second group of contact pads are formed as arrays perpendicular to each other, or the first group of contact pads and the second group of contact pads are formed in respective matrix patterns with a quadratic or rectangular shape that are laterally displaced in relation to each other.
Device for monitoring the state of a spatially extensive supply network having sensors for transmitting current measured values relating to the operating behaviour to at least one control room which is used to monitor and control the supply network, wherein • a respective sensor for locally determining the current measured values is provided at different positions, • the sensors are provided with an evaluation unit which analyses measured signal profiles and signal trends, • completely or else partially wireless data transmission is provided for the purpose of transmitting the respective measured values to the at least one control room and respectively transmits the data in packets at defined times, and the transmission of the measurement signals is dynamically provided, characterized in that • in the event of an abnormal measurement signal profile, the respective sensor transmits the measured values, at shorter intervals of time, to the control room or to adjacent sensors to which the respective sensor is connected by means of a common supply line and which measure an identical or physically similar variable, and • not only the transmission frequency of the one sensor but also that of the adjacent sensors is increased in the process. • a respective sensor for locally determining the current measured values is provided at different positions, • the sensors are provided with an evaluation unit which analyses measured signal profiles and signal trends, • completely or else partially wireless data transmission is provided for the purpose of transmitting the respective measured values to the at least one control room and respectively transmits the data in packets at defined times, and the transmission of the measurement signals is dynamically provided, • in the event of an abnormal measurement signal profile, the respective sensor transmits the measured values, at shorter intervals of time, to the control room or to adjacent sensors to which the respective sensor is connected by means of a common supply line and which measure an identical or physically similar variable, and • not only the transmission frequency of the one sensor but also that of the adjacent sensors is increased in the process.
A node of a communications network comprising a plurality of interconnected nodes, the node comprising: a memory storing information about the topology of the network, information about configuration data comprising attributes of the network, and information about a routing protocol of the network; the memory storing a comparison function derived from a best path definition of the routing protocol; and a path finding component which is adapted to compute at a processor, for an individual one of the nodes, a routing table specifying which neighbors of the individual node incoming data received at the individual node is to be routed to, where computing the routing table comprises searching for optimal paths between the nodes, using the information about the topology of the network and the configuration data, and using the comparison function to guide the search; and wherein optimal paths between the nodes are optimal with respect to one or more of the attributes; wherein the path finding component comprises a queue of network export messages about sub-networks of the communications network being considered in paths searched by the path finding component, and wherein the path finding component is adapted to order the network export messages in the queue using the comparison function and to explore paths from individual sub-networks of network export messages of the queue in an exploration order which follows the queue order. a memory storing information about the topology of the network, information about configuration data comprising attributes of the network, and information about a routing protocol of the network; the memory storing a comparison function derived from a best path definition of the routing protocol; and a path finding component which is adapted to compute at a processor, for an individual one of the nodes, a routing table specifying which neighbors of the individual node incoming data received at the individual node is to be routed to, where computing the routing table comprises searching for optimal paths between the nodes, using the information about the topology of the network and the configuration data, and using the comparison function to guide the search; and wherein optimal paths between the nodes are optimal with respect to one or more of the attributes; wherein the path finding component comprises a queue of network export messages about sub-networks of the communications network being considered in paths searched by the path finding component, and wherein the path finding component is adapted to order the network export messages in the queue using the comparison function and to explore paths from individual sub-networks of network export messages of the queue in an exploration order which follows the queue order.
A method for configuring a remote access to at least one home automation device belonging to a home automation installation (Su), the home automation installation comprising the at least one home automation device and at least one central control unit, the method being implemented by a first remote access service executed by a management unit (Sv) and comprising the following steps of: - Receiving (ECfSvc12) an information message (MIn) concerning a presence of the home automation device originating from a central control unit to which the device is attached; - Determining (ECfSvc13) a second remote access service associated with a type of the home automation device for which a remote access must be configured with corresponding access rules; - Configuring (ECfSvc14) an access right repository (Rf) in order to accept at least one control command (MCa) originating from the second service or sending supervision data (MSa) to the second service on behalf of the home automation device; and - Sending (ECfSvc15) an acceptance/registration message to the second remote access service. - Receiving (ECfSvc12) an information message (MIn) concerning a presence of the home automation device originating from a central control unit to which the device is attached; - Determining (ECfSvc13) a second remote access service associated with a type of the home automation device for which a remote access must be configured with corresponding access rules; - Configuring (ECfSvc14) an access right repository (Rf) in order to accept at least one control command (MCa) originating from the second service or sending supervision data (MSa) to the second service on behalf of the home automation device; and - Sending (ECfSvc15) an acceptance/registration message to the second remote access service.
A method for negotiating speed between a local Fibre Channel client and a remote FC client across a DWDM network comprising: detecting a transmission speed of the local FC client at an ingress transmission interface; encapsulating the transmission speed in an encapsulation header; and forwarding data from the local FC client along with the encapsulation header to an egress transmission interface, said egress transmission interface forwarding said data at the transmission speed to the remote FC client. detecting a transmission speed of the local FC client at an ingress transmission interface; encapsulating the transmission speed in an encapsulation header; and forwarding data from the local FC client along with the encapsulation header to an egress transmission interface, said egress transmission interface forwarding said data at the transmission speed to the remote FC client.
An electrically driven rotary post for public transport vehicles, comprising a drive apparatus having an electric drive motor and a reduction gear unit, wherein a driven element of the drive motor is coupled with an input element of the reduction gear unit and an output element of the reduction gear unit is coupled with the boarding/deboarding devices, wherein the drive apparatus has a compact drive structure, in which the electric drive motor and the reduction gear unit are disposed axially one behind the other within a tubular housing, a non-self-locking reduction gear unit and an additional blocking device for blocking the drive, characterized in that the drive apparatus is disposed within the rotary post, wherein the blocking device is formed by a high active brake.
Safety switch arrangement with at least one safety switch (2a - 2c) of a control and evaluating unit and an actuator associated with the safety switch (2a - 2c), wherein the actuator has two-channel activation by a binary activation signal, characterised in that the safety switch (2a - 2c) comprises a first terminal (f), by way of which only the binary activation signal is transmitted, for the two-channel activation of the actuator and further comprises a second terminal (e) by way of which communication signals from or to the control and evaluating unit and the binary activation signal are transmitted.
A printed circuit board, with a component side, having a rear side lying opposite the component side, the surface of which rear side being designed substantially flat such that the rear side can be thermally conductively contacted with a heat sink, in particular on a substantially flat contact face, in order to cool the printed circuit board, and having cooling means, which comprise microvias (14, 16, 20, 22) and buried vias, for cooling the component side in the direction of the rear side, wherein a plurality of the microvias (14, 16) connect the component side to an inner conductor layer of the printed circuit board in a thermally conducting manner and further of the microvias (20, 22) connect the rear side to a further inner conductor layer of the printed circuit board and two inner conductor layers (30, 32) are connected to each other in a thermally conducting manner by means of the buried vias arranged in an inner insulator layer, characterized by printed carbon polymer resistors (34, 40) on the rear side of the printed circuit board.
A temperature sensor assembly for measuring temperature of a hydrocarbon fluid flowing in a conduit, the assembly comprising: a temperature sensor; and a thermowell body housing the temperature sensor and configured to be embedded in a wall defining the conduit, characterized by the thermowell body comprising a front-end disk having a front face for interfacing with the fluid, the front face being configured to be flush with the wall defining the conduit and a groove disposed behind the front-end disk, the groove extending radially inward of the front face and defining a cavity in which the fluid can circulate, wherein the groove is configured to minimize the cross-sectional area of the thermowell body proximate the location of the temperature sensor. a temperature sensor; and a thermowell body housing the temperature sensor and configured to be embedded in a wall defining the conduit, characterized by the thermowell body comprising a front-end disk having a front face for interfacing with the fluid, the front face being configured to be flush with the wall defining the conduit and a groove disposed behind the front-end disk, the groove extending radially inward of the front face and defining a cavity in which the fluid can circulate, wherein the groove is configured to minimize the cross-sectional area of the thermowell body proximate the location of the temperature sensor.
An automatic valve for milking plants, comprising a substantially cylindrical hollow body internally defining a chamber for milk passage, which chamber has an axial inlet duct and a radial outlet duct and is provided with a shutter which is axially displaceable between a closure configuration, in which milk passage through the chamber is prevented, and an opening configuration, in which milk passage through the chamber is enabled, said shutter having a shaped impact surface arranged to guide the milk flow impinging on said shutter when entering the valve, characterized in that said impact surface is equipped with deflectors axially projecting from top face of shutter and radially oriented so as to impart a rotary motion to the milk entering the valve.
A high-speed filling and plugging system comprising a conveying device, a plug delivering device, a filling device, a first plugging device, and a rubber plug transport device, characterised in that the system also comprises a second plugging device, wherein the rubber plug transport device is used for transferring rubber plugs to the first plugging device and the second plugging device, wherein the filling device, the first plugging device, the second plugging device, the rubber plug transport device and the plug delivering device are sequentially arranged in a conveying direction of the conveying device, the rubber plug transport device comprises a first plugging plate provided with a first rubber plug positioning channel, a second plugging plate provided with a second rubber plug positioning channel, and an eccentric shaft assembly used for driving the first plugging plate and the second plugging plate to rotate to adjust a distance between the first rubber plug positioning channel and the second rubber plug positioning channel, and top plug components are disposed below the plug delivering device.
A method for manufacturing a transistor device, the method comprising a. providing a plurality of parallel nanowires on a substrate, said nanowires having a first end and a second end, wherein the first ends and second ends are connected to each other by means of respective connection portions, both nanowires and connection portions comprising the same material; b. providing a dummy gate structure over a central portion of said parallel nanowires, thereby covering said central portion of said parallel nanowires; c. epitaxially growing extension portions of a second material, selectively on said parallel nanowires and said connection portions, outside of said central portion; d. providing a filler layer around and on top of said dummy gate structure and said extension portions; e. performing a flattening step of said filler layer, to thereby expose an upper surface of said dummy gate structure; f. removing said dummy gate structure, in order to create a gate trench, exposing said central portion of said parallel nanowires; g. providing spacer structures on the sidewalls of said gate trench, to define a final gate trench (12*); h. thereafter, thinning said parallel nanowires, thereby creating free space in between said nanowires and said spacer structures, resulting in an extended exposed portion of said parallel nanowires; i. selectively growing a quantum well layer on or around said parallel nanowires, at least partially filling said free space, to thereby provide a connection between said quantum well layer and said respective extension portions. a. providing a plurality of parallel nanowires on a substrate, said nanowires having a first end and a second end, wherein the first ends and second ends are connected to each other by means of respective connection portions, both nanowires and connection portions comprising the same material; b. providing a dummy gate structure over a central portion of said parallel nanowires, thereby covering said central portion of said parallel nanowires; c. epitaxially growing extension portions of a second material, selectively on said parallel nanowires and said connection portions, outside of said central portion; d. providing a filler layer around and on top of said dummy gate structure and said extension portions; e. performing a flattening step of said filler layer, to thereby expose an upper surface of said dummy gate structure; f. removing said dummy gate structure, in order to create a gate trench, exposing said central portion of said parallel nanowires; g. providing spacer structures on the sidewalls of said gate trench, to define a final gate trench (12*); h. thereafter, thinning said parallel nanowires, thereby creating free space in between said nanowires and said spacer structures, resulting in an extended exposed portion of said parallel nanowires; i. selectively growing a quantum well layer on or around said parallel nanowires, at least partially filling said free space, to thereby provide a connection between said quantum well layer and said respective extension portions.
Camera system, comprising: - a camera unit for capturing still and/or motion images of an object, wherein the camera unit is adjustable, based on a measurement signal, with respect to at least one parameter that is relevant for capturing the still and/or motion images; - a measurement unit for capturing a distance between the object and the camera unit, wherein the measurement unit has: (i) a laser transceiver for transmitting a laser signal and for receiving a laser signal reflected by the object; (ii) an evaluation unit that is coupled to the laser transceiver and is embodied to provide the measurement signal, wherein the measurement signal is indicative of the distance between the object and the camera unit; and (iii) a lens system having at least two lenses (1131, 1132) that are arranged at a distance from one another and through which the laser signal transmitted by the laser transceiver passes, wherein at least one of the lenses (1131, 1132) is arranged to be movable so that the distance between the at least two lenses (1131, 1132) is variably adjustable parallel to the laser signal transmission direction. - a camera unit for capturing still and/or motion images of an object, wherein the camera unit is adjustable, based on a measurement signal, with respect to at least one parameter that is relevant for capturing the still and/or motion images; - a measurement unit for capturing a distance between the object and the camera unit, wherein the measurement unit has: (i) a laser transceiver for transmitting a laser signal and for receiving a laser signal reflected by the object; (ii) an evaluation unit that is coupled to the laser transceiver and is embodied to provide the measurement signal, wherein the measurement signal is indicative of the distance between the object and the camera unit; and (iii) a lens system having at least two lenses (1131, 1132) that are arranged at a distance from one another and through which the laser signal transmitted by the laser transceiver passes, wherein at least one of the lenses (1131, 1132) is arranged to be movable so that the distance between the at least two lenses (1131, 1132) is variably adjustable parallel to the laser signal transmission direction. (i) a laser transceiver for transmitting a laser signal and for receiving a laser signal reflected by the object; (ii) an evaluation unit that is coupled to the laser transceiver and is embodied to provide the measurement signal, wherein the measurement signal is indicative of the distance between the object and the camera unit; and (iii) a lens system having at least two lenses (1131, 1132) that are arranged at a distance from one another and through which the laser signal transmitted by the laser transceiver passes, wherein at least one of the lenses (1131, 1132) is arranged to be movable so that the distance between the at least two lenses (1131, 1132) is variably adjustable parallel to the laser signal transmission direction.