mhurhangee/ep-ind-claims huggingface dataset:
A generating apparatus for converting kinetic energy from a substantially horizontal water flow to electrical energy, the apparatus comprising: a support structure; a hub which is rotationally fixed to the support structure; and a hub level controller adapted to control the level of the hub on the support structure; characterised in that the apparatus further comprises: a power wheel arranged for rotation about a substantially vertical axis about the hub and provided with rotor vanes adapted to cause rotation of the power wheel when the power wheel is subject to a substantially horizontal water flow; a shroud rotationally mounted on the hub and arranged to cover at least some of the rotor vanes of the power wheel; a directional controller adapted to hold the shroud in a predetermined rotational position relative to the hub dependent on the direction of the substantially horizontal water flow; and at least one generator provided on the hub and adapted to produce electrical power output derived from rotation of the power wheel relative to the hub. a support structure; a hub which is rotationally fixed to the support structure; and a hub level controller adapted to control the level of the hub on the support structure; characterised in that the apparatus further comprises: a power wheel arranged for rotation about a substantially vertical axis about the hub and provided with rotor vanes adapted to cause rotation of the power wheel when the power wheel is subject to a substantially horizontal water flow; a shroud rotationally mounted on the hub and arranged to cover at least some of the rotor vanes of the power wheel; a directional controller adapted to hold the shroud in a predetermined rotational position relative to the hub dependent on the direction of the substantially horizontal water flow; and at least one generator provided on the hub and adapted to produce electrical power output derived from rotation of the power wheel relative to the hub. a power wheel arranged for rotation about a substantially vertical axis about the hub and provided with rotor vanes adapted to cause rotation of the power wheel when the power wheel is subject to a substantially horizontal water flow; a shroud rotationally mounted on the hub and arranged to cover at least some of the rotor vanes of the power wheel; a directional controller adapted to hold the shroud in a predetermined rotational position relative to the hub dependent on the direction of the substantially horizontal water flow; and at least one generator provided on the hub and adapted to produce electrical power output derived from rotation of the power wheel relative to the hub.
User equipment, UE, comprising: circuitry to perform a mobility state estimation, MSE, operation to determine an MSE state for the UE based on a first cell count determined by the UE; a receiver to receive, from a cell (104; 106; 108; 110) in a heterogeneous third generation partnership project, 3GPP, network, mobility state information corresponding to a second cell count determined by the heterogeneous 3GPP network due to movement of the UE within the heterogeneous 3GPP network, the circuitry to update the MSE state for the UE, the updated MSE state determined by taking into account the mobility state information received from the cell (104; 106; 108; 110); and a transmitter to communicate the updated MSE state to the cell (104; 106; 108; 110). circuitry to perform a mobility state estimation, MSE, operation to determine an MSE state for the UE based on a first cell count determined by the UE; a receiver to receive, from a cell (104; 106; 108; 110) in a heterogeneous third generation partnership project, 3GPP, network, mobility state information corresponding to a second cell count determined by the heterogeneous 3GPP network due to movement of the UE within the heterogeneous 3GPP network, the circuitry to update the MSE state for the UE, the updated MSE state determined by taking into account the mobility state information received from the cell (104; 106; 108; 110); and a transmitter to communicate the updated MSE state to the cell (104; 106; 108; 110).
A method for transporting articles to a station, in particular preforms to a blowing apparatus, wherein each article has a projection and is moved along a guide by a drive device, wherein, along at least part of the guide, the article is held by an air stream against an installation (19, 21, 23) and is transported further along this installation, wherein the article is held only on one side and is kept in equilibrium by a suction stream and is driven by a moving track having an upwardly directed sharp edge, wherein the suction stream compensates for the tilting moment that arises as a result of the one-sided holding force and keeps the article in equilibrium on the movable guide element.
Method of MR imaging of an object positioned in an examination volume of a MR device, the method comprising the steps of: - specification of a set of radial k-space spokes to cover a spherical k-space volume; - selection of subsets, with each subset comprising a predetermined number of spokes from the specified set so that the concatenation of the spokes contained in each of the subsets forms a closed trajectory in k-space, wherein the selection of the subsets is based on optimizing a cost function favouring (i) minimizing the maximum angle between subsequently acquired spokes within the same subset, (ii) maximizing the uniformity of the distribution of all spokes' end points on the surface of the covered spherical k-space volume, while ensuring that the concatenation of the spokes of each subset forms a closed trajectory in k-space; - subjecting the object to a zero echo time imaging sequence, wherein each of the subsets of spokes is acquired as a sequence of gradient echo signals; and - reconstructing an MR image from the acquired spokes. - specification of a set of radial k-space spokes to cover a spherical k-space volume; - selection of subsets, with each subset comprising a predetermined number of spokes from the specified set so that the concatenation of the spokes contained in each of the subsets forms a closed trajectory in k-space, wherein the selection of the subsets is based on optimizing a cost function favouring (i) minimizing the maximum angle between subsequently acquired spokes within the same subset, (ii) maximizing the uniformity of the distribution of all spokes' end points on the surface of the covered spherical k-space volume, while ensuring that the concatenation of the spokes of each subset forms a closed trajectory in k-space; - subjecting the object to a zero echo time imaging sequence, wherein each of the subsets of spokes is acquired as a sequence of gradient echo signals; and - reconstructing an MR image from the acquired spokes.
A base station configured to communicate a channel state information reference signal, CSI-RS, resource element, RE, mapping configuration to a user equipment, UE, the apparatus comprising: one or more processors configured to: determine, at the base station, a CSI-RS RE mapping configuration that identifies resource elements for a CSI-RS resource at a frequency domain location, k, and at a time domain location, 1, comprising two frequency domain resource elements, FD2, and four time domain resource elements, TD4, when a number of antenna ports is equal to 32, the CSI-RS resource used for code division multiplexing, CDM, with a size 8, CDM-8; encode, at the base station, the CSI-RS RE mapping configuration for transmission to the UE via higher layer signaling; encode, at the base station, a CSI-RS for transmission to the UE in accordance with the CSI-RS resource defined by the CSI-RS RE mapping configuration; and a memory interface configured to retrieve from a memory the CSI-RS RE mapping configuration. determine, at the base station, a CSI-RS RE mapping configuration that identifies resource elements for a CSI-RS resource at a frequency domain location, k, and at a time domain location, 1, comprising two frequency domain resource elements, FD2, and four time domain resource elements, TD4, when a number of antenna ports is equal to 32, the CSI-RS resource used for code division multiplexing, CDM, with a size 8, CDM-8; encode, at the base station, the CSI-RS RE mapping configuration for transmission to the UE via higher layer signaling; encode, at the base station, a CSI-RS for transmission to the UE in accordance with the CSI-RS resource defined by the CSI-RS RE mapping configuration; and a memory interface configured to retrieve from a memory the CSI-RS RE mapping configuration.
An apparatus for cleaning an object detecting sensor, the apparatus comprising: a driving environment acquirer configured to acquire driving environment information of a vehicle the driving environment information includes at least one of a location and a speed of the vehicle based on navigation, a speed of the vehicle based on a speed sensor, or a traffic situation based on vehicle-to-everything communication (V2X); a cleaning nozzle configured to eject a washing liquid for cleaning the object detecting sensor according to an operation period of the cleaning nozzle, the operation period being set based on the driving environment information; and a controller configured to calculate a driving state score of the vehicle based on the driving environment information and to set the operation period of the cleaning nozzle based on the driving state score characterized in that the controller calculates the driving state score by combining a score given according to the location of the vehicle, a score given according to the speed of the vehicle, and a score given according to the traffic situation around the vehicle. a driving environment acquirer configured to acquire driving environment information of a vehicle the driving environment information includes at least one of a location and a speed of the vehicle based on navigation, a speed of the vehicle based on a speed sensor, or a traffic situation based on vehicle-to-everything communication (V2X); a cleaning nozzle configured to eject a washing liquid for cleaning the object detecting sensor according to an operation period of the cleaning nozzle, the operation period being set based on the driving environment information; and a controller configured to calculate a driving state score of the vehicle based on the driving environment information and to set the operation period of the cleaning nozzle based on the driving state score characterized in that the controller calculates the driving state score by combining a score given according to the location of the vehicle, a score given according to the speed of the vehicle, and a score given according to the traffic situation around the vehicle.
A method to find a match between reference broadcast data and metered broadcast data comprising: collecting reference signatures at media monitoring sites and/or a central office and associating each of the reference signatures with a respective reference timestamp; collecting query signatures by metering devices (104, 114) at various monitored locations and associating each of the query signatures with a respective query timestamp; dividing the query signatures into segments; loading the reference signatures into a hash table, wherein a hash function is applied to the reference signatures to identify reference index values in the hash table; matching the segments to the reference signatures, wherein a hash function is applied to the query signatures to identify query index values in the hash table, time offset values between matching sets of the reference index values and the query index values for each of the segments are calculated, a count of occurrences of similar time offset values in each of the respective segments is accumulated and offset values that exceed a first threshold number of occurrences in each of the respective segments are selected; post-processing the matched segments, wherein from the segments that were matched and compared to the first threshold number of occurrences a subset of adjacent segments is acquired, a comparison of adjacent segment histograms is performed and offset values that exceed a second threshold number of occurrences in each of the segments are retained for program identification. collecting reference signatures at media monitoring sites and/or a central office and associating each of the reference signatures with a respective reference timestamp; collecting query signatures by metering devices (104, 114) at various monitored locations and associating each of the query signatures with a respective query timestamp; dividing the query signatures into segments; loading the reference signatures into a hash table, wherein a hash function is applied to the reference signatures to identify reference index values in the hash table; matching the segments to the reference signatures, wherein a hash function is applied to the query signatures to identify query index values in the hash table, time offset values between matching sets of the reference index values and the query index values for each of the segments are calculated, a count of occurrences of similar time offset values in each of the respective segments is accumulated and offset values that exceed a first threshold number of occurrences in each of the respective segments are selected; post-processing the matched segments, wherein from the segments that were matched and compared to the first threshold number of occurrences a subset of adjacent segments is acquired, a comparison of adjacent segment histograms is performed and offset values that exceed a second threshold number of occurrences in each of the segments are retained for program identification.
A layered material part (67, 69) comprising: a front face (33, 43, 53, 73) and a back face (35, 45, 55, 75) opposite to each other; at least one tensile stress layer; at least one compression stress layer (CSL1, CSL2); at least one interface region (IR1, IR2) between the at least one tensile stress layer and the at least one compression stress layer (CSL1, CSL2); and at least one cut face connecting the front face (33, 43, 53, 73) and the back face (35, 45, 55, 75), wherein the cut face includes surface structures induced by a Bessel beam laser, the surface structures extending across the at least one interface region (IR1, IR2). a front face (33, 43, 53, 73) and a back face (35, 45, 55, 75) opposite to each other; at least one tensile stress layer; at least one compression stress layer (CSL1, CSL2); at least one interface region (IR1, IR2) between the at least one tensile stress layer and the at least one compression stress layer (CSL1, CSL2); and at least one cut face connecting the front face (33, 43, 53, 73) and the back face (35, 45, 55, 75), wherein the cut face includes surface structures induced by a Bessel beam laser, the surface structures extending across the at least one interface region (IR1, IR2).
A method of operating an amusement ride, comprising: receiving user information from one or more users at the amusement ride using one or more sensors, wherein the user information comprises at least one of user gestures and user sounds; determining whether the user information meets at least one criterion; and controlling the amusement ride based on the determination, characterized in that: the amusement ride comprises a first tower including a first passenger seating area and a second tower including a second passenger seating area, the first passenger seating area and the second passenger seating area facing each other; the user information comprises first user information and second user information, the first user information received from one or more users in the first passenger seating area and the second user information received from one or more users in the second passenger seating area, the first user information and second user information each comprising at least one of user gestures and user sounds; and the first user information is determined to meet the at least one criterion when one or more of the user gestures or user sounds of the first user information respectively exceed the one or more of the user gestures or the user sounds of the second user information; and wherein the amusement ride is controlled to move the first passenger seating area prior to moving the second passenger seating area in response to the determination. the amusement ride comprises a first tower including a first passenger seating area and a second tower including a second passenger seating area, the first passenger seating area and the second passenger seating area facing each other; the user information comprises first user information and second user information, the first user information received from one or more users in the first passenger seating area and the second user information received from one or more users in the second passenger seating area, the first user information and second user information each comprising at least one of user gestures and user sounds; and the first user information is determined to meet the at least one criterion when one or more of the user gestures or user sounds of the first user information respectively exceed the one or more of the user gestures or the user sounds of the second user information; and wherein the amusement ride is controlled to move the first passenger seating area prior to moving the second passenger seating area in response to the determination.
A method of identifying a neighbouring cell as a candidate for scheduling, comprising the steps of: receiving over a first component carrier from a serving cell a first threshold, a second threshold and identification of a second component carrier; measuring a reception level of the serving cell on the first component carrier and determining if the measurement exceeds the first threshold; if the measurement exceeds the first threshold, initiating a cell search on the second component carrier; identifying a neighboring cell on the second component carrier; measuring a reception level of the neighboring cell on the second component carrier and determining if the measurement exceeds the second threshold; if the measurement exceeds the second threshold, determining that the neighboring cell is a potential candidate for scheduling on the second component carrier. receiving over a first component carrier from a serving cell a first threshold, a second threshold and identification of a second component carrier; measuring a reception level of the serving cell on the first component carrier and determining if the measurement exceeds the first threshold; if the measurement exceeds the first threshold, initiating a cell search on the second component carrier; identifying a neighboring cell on the second component carrier; measuring a reception level of the neighboring cell on the second component carrier and determining if the measurement exceeds the second threshold; if the measurement exceeds the second threshold, determining that the neighboring cell is a potential candidate for scheduling on the second component carrier.
A method for wireless communication, comprising: determining a wideband allocation of resources for transmitting uplink wireless communications; determining a frequency hopping offset related to one or more narrowbands for transmitting uplink wireless communications; determining whether to apply the frequency hopping offset to the wideband allocation in communicating data; and communicating, based on determining to apply the frequency hopping offset, the data over resources related to the wideband allocation with the frequency hopping offset applied, wherein determining whether to apply the frequency hopping offset is based at least in part on determining a location of resources of the wideband allocation with respect to the one or more narrowbands, based at least on a narrowband location of the one or more narrowbands and the resources outside one or more narrowbands. determining a wideband allocation of resources for transmitting uplink wireless communications; determining a frequency hopping offset related to one or more narrowbands for transmitting uplink wireless communications; determining whether to apply the frequency hopping offset to the wideband allocation in communicating data; and communicating, based on determining to apply the frequency hopping offset, the data over resources related to the wideband allocation with the frequency hopping offset applied, wherein determining whether to apply the frequency hopping offset is based at least in part on determining a location of resources of the wideband allocation with respect to the one or more narrowbands, based at least on a narrowband location of the one or more narrowbands and the resources outside one or more narrowbands.
A grain harvesting vehicle configured to harvest a grain, the grain harvesting vehicle comprising: a chaffer configured to separate grain from material other than grain; a grate positioned rearward of the chaffer, the grate comprising: a grate panel having an upper surface and a lower surface; an aperture in the grate panel extending between the upper surface and the lower surface, the aperture having a first end nearer the chaffer and a second end opposite the first end; and a first ramp portion extending above the grate panel from adjacent the first end of the aperture toward the second end of the aperture; and a grain sensor having a sensing location positioned at a height below the grate, characterized in that the first ramp portion is hollow and begins at a point on the upper surface of the grate and increases in width and height in the direction of the length of the grate toward the rear side of the grate, that the grate further includes a second ramp portion extending below the grate panel from adjacent the second end of the aperture toward the first end of the aperture, and that the first ramp portion is mirrored relative to the second ramp portion such that the second ramp portion forms a lower cupped ramp on the lower surface of the grate.. a chaffer configured to separate grain from material other than grain; a grate positioned rearward of the chaffer, the grate comprising: a grate panel having an upper surface and a lower surface; an aperture in the grate panel extending between the upper surface and the lower surface, the aperture having a first end nearer the chaffer and a second end opposite the first end; and a first ramp portion extending above the grate panel from adjacent the first end of the aperture toward the second end of the aperture; and a grain sensor having a sensing location positioned at a height below the grate, a grate panel having an upper surface and a lower surface; an aperture in the grate panel extending between the upper surface and the lower surface, the aperture having a first end nearer the chaffer and a second end opposite the first end; and a first ramp portion extending above the grate panel from adjacent the first end of the aperture toward the second end of the aperture; and a grain sensor having a sensing location positioned at a height below the grate, characterized in that the first ramp portion is hollow and begins at a point on the upper surface of the grate and increases in width and height in the direction of the length of the grate toward the rear side of the grate, that the grate further includes a second ramp portion extending below the grate panel from adjacent the second end of the aperture toward the first end of the aperture, and that the first ramp portion is mirrored relative to the second ramp portion such that the second ramp portion forms a lower cupped ramp on the lower surface of the grate..