mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment for performing preamble transmissions on a random access channel to a network node , the method comprising: receiving a system frame number, SFN, from the network node ; receiving a random access channel configuration from the network node ; determining a number of times, R, a preamble transmission is to be repeated; determining a starting subframe for the preamble transmission(s) based at least on the received SFN, the received random access channel configuration, and the determined number of times, R, the preamble transmission is to be repeated; and transmitting , to the network node , the preamble repeatedly starting in the determined starting subframe. receiving a system frame number, SFN, from the network node ; receiving a random access channel configuration from the network node ; determining a number of times, R, a preamble transmission is to be repeated; determining a starting subframe for the preamble transmission(s) based at least on the received SFN, the received random access channel configuration, and the determined number of times, R, the preamble transmission is to be repeated; and transmitting , to the network node , the preamble repeatedly starting in the determined starting subframe.
An apparatus for generating an image data bitstream, the apparatus comprising a store for storing a set of image parts and associated depth data representing a scene from different view poses; a predictability processor for generating predictability measures for image parts of the set of image parts for view poses of the scene, a predictability measure for a first image part for a first view pose being indicative of an estimate of a prediction quality for a prediction of at least part of an image for a viewport of the first view pose from a first subset of image parts of the set of image parts not including the first image part; a selector for selecting a second subset of image parts of the set of image parts in response to the predictability measures; and a bitstream generator for generating the image bitstream comprising image data and depth data from the second subset of image parts; characterized in that the selector is arranged to select a plurality of contiguous image parts in response to a determination that the plurality of contiguous image parts form a region having a predictability measure below a first threshold for an interior part of the region and a predictability measure above a second threshold for a border part of the region.
An apparatus comprising: a transceiver configured to receive a first network access request, NAR, associated with a first activity of an application executing on a device in a managed network and a second NAR associated with a second activity of the application , wherein the first NAR and the second NAR indicate requests for access by the application for first and second durations of the first and second activities, respectively, and wherein each of the first and second NAR includes a timestamp and information indicating the duration , wherein multiple instances of the second activity can be initiated and completed within the duration of the first activity; and a processor configured to selectively grant the first request and the second request based on information included in the first NAR and the second NAR, respectively, and generate configuration information for the managed network in response to granting at least one of the requests. a transceiver configured to receive a first network access request, NAR, associated with a first activity of an application executing on a device in a managed network and a second NAR associated with a second activity of the application , wherein the first NAR and the second NAR indicate requests for access by the application for first and second durations of the first and second activities, respectively, and wherein each of the first and second NAR includes a timestamp and information indicating the duration , wherein multiple instances of the second activity can be initiated and completed within the duration of the first activity; and a processor configured to selectively grant the first request and the second request based on information included in the first NAR and the second NAR, respectively, and generate configuration information for the managed network in response to granting at least one of the requests.
A computer-implemented method comprising: receiving a three dimensional surface representing a geographic area, the surface having elevation values associated with points of the surface and the geographic area comprising a structure having a geographic footprint smaller than the geographic area; projecting, by a processor, the elevation values into a two dimensional plane; generating an intensity image having pixel values based on corresponding elevation values of the 2D plane; segmenting the intensity image; detecting a shape representing the geographic footprint of the structure in the geographic area from the segmented intensity image, the shape being detected based on a pattern in the segmented image forming a recognisable shape, wherein detecting a shape comprises: identifying the pattern as forming a recognisable shape; determining a confidence level in said shape based on the percentage of the shape that required extrapolation from the pattern to form the shape; and determining that the identified pattern is the detected shape if the determined confidence level is above a predetermined confidence threshold; and constructing a 3D model of the structure by assigning heights to the detected shape based on the elevation values projected into points of the 2D plane corresponding to the shape. receiving a three dimensional surface representing a geographic area, the surface having elevation values associated with points of the surface and the geographic area comprising a structure having a geographic footprint smaller than the geographic area; projecting, by a processor, the elevation values into a two dimensional plane; generating an intensity image having pixel values based on corresponding elevation values of the 2D plane; segmenting the intensity image; detecting a shape representing the geographic footprint of the structure in the geographic area from the segmented intensity image, the shape being detected based on a pattern in the segmented image forming a recognisable shape, wherein detecting a shape comprises: identifying the pattern as forming a recognisable shape; determining a confidence level in said shape based on the percentage of the shape that required extrapolation from the pattern to form the shape; and determining that the identified pattern is the detected shape if the determined confidence level is above a predetermined confidence threshold; and identifying the pattern as forming a recognisable shape; determining a confidence level in said shape based on the percentage of the shape that required extrapolation from the pattern to form the shape; and determining that the identified pattern is the detected shape if the determined confidence level is above a predetermined confidence threshold; and constructing a 3D model of the structure by assigning heights to the detected shape based on the elevation values projected into points of the 2D plane corresponding to the shape.
A valve , for relieving ground water pressure on a swimming pool for containing pool water, including a body defining a flow path; and an element mounted to be moved in a direction from a position in which at least one feature of the element co-operates with at least one feature of the body to form a sealing arrangement to block the flow path to retain the pool water; to a position in which the flow path is open to allow ground water into the swimming pool; and the sealing arrangement defining an effective area over which the ground water pressure acts to drive the element in the direction; and an effective area over which pool water pressure acts to drive the element opposite the direction; characterised by the co-operable features being configured such that a ratio of the effective area over which the ground water pressure acts t o the effective area over which pool water pressure acts has a value of at least 0.9. from a position in which at least one feature of the element co-operates with at least one feature of the body to form a sealing arrangement to block the flow path to retain the pool water; to a position in which the flow path is open to allow ground water into the swimming pool; and an effective area over which the ground water pressure acts to drive the element in the direction; and an effective area over which pool water pressure acts to drive the element opposite the direction;
A wall framing system having (a.) 76.2x152.4 millimeter thermal break wood and rigid insulation studs , the 76.2x152.4 millimeter thermal studs each having: (i.) two lumber 76.2x50.8 millimeter sections with a thermal break section of rigid foam insulation positioned there between whose dimension ranges from 50.8-88.9 millimeters (depth) by 50.8-88.9 millimeters (width); (ii.) mechanical fasteners securing and passing through one of the lumber sections and the thermal break insulation and into the other of the lumber sections ; (b.) a wall comprising top and bottom plates , the studs secured between the plates ; and (c.) a thermal break corner having an exterior thermal break stud , an adjacent through-the-wall thermal break stud oriented 1.57 radian from each other and an interior all wood stud for completing an inner wall corner section for nailing thereto with a thermal break space between the exterior thermal break stud and the interior wood stud for adding thermal insulation and the thermal break space continuing through the through-the-wall thermal break stud . (a.) 76.2x152.4 millimeter thermal break wood and rigid insulation studs , the 76.2x152.4 millimeter thermal studs each having: (i.) two lumber 76.2x50.8 millimeter sections with a thermal break section of rigid foam insulation positioned there between whose dimension ranges from 50.8-88.9 millimeters (depth) by 50.8-88.9 millimeters (width); (ii.) mechanical fasteners securing and passing through one of the lumber sections and the thermal break insulation and into the other of the lumber sections ; (i.) two lumber 76.2x50.8 millimeter sections with a thermal break section of rigid foam insulation positioned there between whose dimension ranges from 50.8-88.9 millimeters (depth) by 50.8-88.9 millimeters (width); (ii.) mechanical fasteners securing and passing through one of the lumber sections and the thermal break insulation and into the other of the lumber sections ; (b.) a wall comprising top and bottom plates , the studs secured between the plates ; and (c.) a thermal break corner having an exterior thermal break stud , an adjacent through-the-wall thermal break stud oriented 1.57 radian from each other and an interior all wood stud for completing an inner wall corner section for nailing thereto with a thermal break space between the exterior thermal break stud and the interior wood stud for adding thermal insulation and the thermal break space continuing through the through-the-wall thermal break stud .
A contact nozzle for coating at least one elastic strand with an adhesive , a first strand having a periphery with an upper surface and moving in a machine direction, the contact nozzle comprising: a nozzle body including a first elongate adhesive chamber for receiving the first strand , said first elongate adhesive chamber including a first chamber surface ; a first adhesive passage formed in said nozzle body and terminating at a first adhesive orifice in said first chamber surface and adapted to be directed at the upper surface of the first strand to deliver the adhesive into contact with the upper surface of the first strand ; a first air passage positioned proximate to said first adhesive passage and terminating at a first air orifice positioned downstream from said first adhesive orifice in the machine direction, said first air orifice adapted to be directed toward the upper surface of the first strand and adapted to discharge air at the adhesive in contact with the first strand to cause the adhesive to spread around the periphery of the first strand , and characterised in that , said first air orifice is adapted to discharge air at the adhesive in contact with the first strand without blowing the adhesive off the first elastic strand wherein said first air passage is formed in said nozzle body and air discharged from said first air orifice is adapted to impact the adhesive on the first strand at an acute angle (α) relative to the machine direction. a nozzle body including a first elongate adhesive chamber for receiving the first strand , said first elongate adhesive chamber including a first chamber surface ; a first adhesive passage formed in said nozzle body and terminating at a first adhesive orifice in said first chamber surface and adapted to be directed at the upper surface of the first strand to deliver the adhesive into contact with the upper surface of the first strand ; a first air passage positioned proximate to said first adhesive passage and terminating at a first air orifice positioned downstream from said first adhesive orifice in the machine direction, said first air orifice adapted to be directed toward the upper surface of the first strand and adapted to discharge air at the adhesive in contact with the first strand to cause the adhesive to spread around the periphery of the first strand , and characterised in that , said first air orifice is adapted to discharge air at the adhesive in contact with the first strand without blowing the adhesive off the first elastic strand wherein said first air passage is formed in said nozzle body and air discharged from said first air orifice is adapted to impact the adhesive on the first strand at an acute angle (α) relative to the machine direction.
A method of applying an electrospun material to an inner surface of a stent , the method comprising the steps of: coupling a mandrel to a stent body ; wherein the stent body comprises an inner surface defining a cavity and an outer surface opposing the inner surface , and wherein the stent body has a length along an axis defined by the mandrel between a first end of the stent body and a second end of the stent body ; applying an electrospun material to at least a portion of the stent outer surface and to at least a portion of the mandrel to form a coating sheet ; wherein a portion (402; 406) of the coating sheet extends from at least one of the first end or second end of the stent to the mandrel ; and moving one or both of the stent and the mandrel to apply at least some of the portion (402; 406) of the coating sheet onto the inner surface of the stent body . coupling a mandrel to a stent body ; wherein the stent body comprises an inner surface defining a cavity and an outer surface opposing the inner surface , and wherein the stent body has a length along an axis defined by the mandrel between a first end of the stent body and a second end of the stent body ; applying an electrospun material to at least a portion of the stent outer surface and to at least a portion of the mandrel to form a coating sheet ; wherein a portion (402; 406) of the coating sheet extends from at least one of the first end or second end of the stent to the mandrel ; and moving one or both of the stent and the mandrel to apply at least some of the portion (402; 406) of the coating sheet onto the inner surface of the stent body .
An LED module comprising: - a substrate and at least two LED components arranged on a surface of the substrate, wherein the LED components are each LED chips individually enclosed with a casting compound , wherein the LED components are arranged to form an interstice , and - a transparent cover arranged over the LED components , which covers the at least two LED components and at least partially fills in the interstice between the LED components , wherein the substrate is a printed circuit board, and wherein the LED components are "chip scale package" (CSP) LEDs, wherein the casting compound applied to the individual LED chips is made of silicone material, wherein the cover is made of silicone material or epoxy resin, wherein a lateral distance (d) between two LED components is between 50 and 250 μm, wherein the transparent cover comprises a plate-shaped sub-area and at least one projection extending therefrom into the interstice , wherein the casting compound comprises fluorescent particles introduced therein and thus forms a fluorescent layer surrounding the LED chip , wherein the fluorescent particles are configured in order to convert a light emitted by the LED chips at least partially into light of a higher wavelength so that a mixed light is generated, and wherein the cover comprises further fluorescent particles in order to achieve an adjustment or compensation of color coordinates and/or a color temperature of the mixed light. - a substrate and at least two LED components arranged on a surface of the substrate, wherein the LED components are each LED chips individually enclosed with a casting compound , wherein the LED components are arranged to form an interstice , and - a transparent cover arranged over the LED components , which covers the at least two LED components and at least partially fills in the interstice between the LED components , wherein the substrate is a printed circuit board, and wherein the LED components are "chip scale package" (CSP) LEDs, wherein the casting compound applied to the individual LED chips is made of silicone material, wherein the cover is made of silicone material or epoxy resin, wherein a lateral distance (d) between two LED components is between 50 and 250 μm, wherein the transparent cover comprises a plate-shaped sub-area and at least one projection extending therefrom into the interstice , wherein the casting compound comprises fluorescent particles introduced therein and thus forms a fluorescent layer surrounding the LED chip , wherein the fluorescent particles are configured in order to convert a light emitted by the LED chips at least partially into light of a higher wavelength so that a mixed light is generated, and wherein the cover comprises further fluorescent particles in order to achieve an adjustment or compensation of color coordinates and/or a color temperature of the mixed light.
Connection part made of composite material, intended to create a connection between a first mechanical part (P1) and a second mechanical part (P2), said connection part being thermohardenable and partially polymerised in such a way as to be rigid at ambient temperature and capable of being subjected to a final later polymerisation, said connection part being provided, at a second end intended for the connection to the second mechanical part (P2), with a housing , characterised in that it includes a ball mounted in the housing .
An acoustic receiver for a downhole tool, comprising: a housing ; and a sensor subassembly located within the housing , comprising: a mount ; a cylindrical piezoelectric crystal coupled to the mount and comprising two ends; an additional mount and a screw that couples the mount to the additional mount through the cylindrical piezoelectric crystal ; and an isolation ring positioned between one of the ends of the cylindrical piezoelectric crystal and the mount , wherein the isolation ring directly engages the crystal and the mount , characterised in that the screw comprises a conduit formed therein providing fluid communication between an internal cavity within the sensor subassembly and an environment external of the sensor subassembly to pressure balance the cavity and the external environment. a housing ; and a sensor subassembly located within the housing , comprising: a mount ; a cylindrical piezoelectric crystal coupled to the mount and comprising two ends; an additional mount and a screw that couples the mount to the additional mount through the cylindrical piezoelectric crystal ; and an isolation ring positioned between one of the ends of the cylindrical piezoelectric crystal and the mount , wherein the isolation ring directly engages the crystal and the mount , characterised in that the screw comprises a conduit formed therein providing fluid communication between an internal cavity within the sensor subassembly and an environment external of the sensor subassembly to pressure balance the cavity and the external environment. a mount ; a cylindrical piezoelectric crystal coupled to the mount and comprising two ends; an additional mount and a screw that couples the mount to the additional mount through the cylindrical piezoelectric crystal ; and an isolation ring positioned between one of the ends of the cylindrical piezoelectric crystal and the mount , wherein the isolation ring directly engages the crystal and the mount , characterised in that the screw comprises a conduit formed therein providing fluid communication between an internal cavity within the sensor subassembly and an environment external of the sensor subassembly to pressure balance the cavity and the external environment.
Prepregs comprising A) at least one fibrous support and B) a matrix material of at least one reactive polyurethane composition B) containing uretdione groups, essentially comprising a) at least one curing agent containing uretdione groups, based on polyaddition compounds from aliphatic, (cyclo)aliphatic or cycloaliphatic polyisocyanates containing uretdione groups and hydroxyl group-containing compounds, where the curing agent exists in solid form below 40°C and in liquid form above 110°C, and has a free NCO content of less than 5 wt.% and a uretdione content of 3 - 25 wt.%, b) at least one hydroxyl group-containing liquid resin component b) having a Tg or melting point below 25°C and an OH number between 50 and 2000 mg KOH/gram, c) optionally at least one catalyst, so that the two components a) and b) are present in a ratio such that there is from 0.3 to 1 uretdione group of component a) for each hydroxyl group of component b), preferably from 0.45 to 0.55. A) at least one fibrous support and B) a matrix material of at least one reactive polyurethane composition B) containing uretdione groups, essentially comprising a) at least one curing agent containing uretdione groups, based on polyaddition compounds from aliphatic, (cyclo)aliphatic or cycloaliphatic polyisocyanates containing uretdione groups and hydroxyl group-containing compounds, where the curing agent exists in solid form below 40°C and in liquid form above 110°C, and has a free NCO content of less than 5 wt.% and a uretdione content of 3 - 25 wt.%, b) at least one hydroxyl group-containing liquid resin component b) having a Tg or melting point below 25°C and an OH number between 50 and 2000 mg KOH/gram, c) optionally at least one catalyst, a) at least one curing agent containing uretdione groups, based on polyaddition compounds from aliphatic, (cyclo)aliphatic or cycloaliphatic polyisocyanates containing uretdione groups and hydroxyl group-containing compounds, where the curing agent exists in solid form below 40°C and in liquid form above 110°C, and has a free NCO content of less than 5 wt.% and a uretdione content of 3 - 25 wt.%, b) at least one hydroxyl group-containing liquid resin component b) having a Tg or melting point below 25°C and an OH number between 50 and 2000 mg KOH/gram, c) optionally at least one catalyst,