mhurhangee/ep-ind-claims huggingface dataset:
Method for temporarily releasing a screw anchorage, in which - a primary screw having a thread that is tappingly engaged in a mating thread in an ungrouted hole in a mineral substrate is unscrewed and removed from the hole, - a retrofitting screw is subsequently screwed into the hole, thereby forming an annular gap between the retrofitting screw and the substrate, and - hardenable grout is placed in the annular gap, and the hardenable grout is hardened in the annular gap. - a primary screw having a thread that is tappingly engaged in a mating thread in an ungrouted hole in a mineral substrate is unscrewed and removed from the hole, - a retrofitting screw is subsequently screwed into the hole, thereby forming an annular gap between the retrofitting screw and the substrate, and - hardenable grout is placed in the annular gap, and the hardenable grout is hardened in the annular gap.
Method for treating ash from waste incineration plants, wherein - the ash is provided, - the ash is, in a first classification stage, classified into a first coarse fraction and a fine fraction with addition of water which is conducted in a first water circuit, - the first coarse fraction is, in a second classification stage, subjected to control classification, and in the process a residual fraction is separated off, and wherein - the control classification is realized with addition of water which is conducted in a second water circuit, which is independent of the first water circuit. - the ash is provided, - the ash is, in a first classification stage, classified into a first coarse fraction and a fine fraction with addition of water which is conducted in a first water circuit, - the first coarse fraction is, in a second classification stage, subjected to control classification, and in the process a residual fraction is separated off, and wherein - the control classification is realized with addition of water which is conducted in a second water circuit, which is independent of the first water circuit.
A computer-implemented method for forming clusters for vehicle to vehicle communication, the method comprising: acquiring sensor data from one or more sensors embedded in a vehicle, the sensor data including location, direction, and at least one of average speed and momentum of the vehicle; map matching the location of the vehicle to a lane by matching a sequence of location probes of the vehicle to a stored map; exchanging sensor data with other vehicles within a first distance, the exchanging comprising: broadcasting the acquired sensor data and the map-matched lane and listening to broadcasts from the other vehicles; determining a proximity of each vehicle of a plurality of vehicles using the exchanged data, generating a sub cluster with vehicles of the plurality of vehicles such that each vehicle of the sub cluster is driving on the same lane and is within a second distance of any other vehicle of the sub cluster; merging the sub cluster with other sub clusters into a cluster of vehicles based on a spatial proximity, similarity of direction, and similarity of average speed or momentum of the sub clusters; and establishing vehicle to vehicle communication between vehicles in the cluster of vehicles. acquiring sensor data from one or more sensors embedded in a vehicle, the sensor data including location, direction, and at least one of average speed and momentum of the vehicle; map matching the location of the vehicle to a lane by matching a sequence of location probes of the vehicle to a stored map; exchanging sensor data with other vehicles within a first distance, the exchanging comprising: broadcasting the acquired sensor data and the map-matched lane and listening to broadcasts from the other vehicles; determining a proximity of each vehicle of a plurality of vehicles using the exchanged data, generating a sub cluster with vehicles of the plurality of vehicles such that each vehicle of the sub cluster is driving on the same lane and is within a second distance of any other vehicle of the sub cluster; merging the sub cluster with other sub clusters into a cluster of vehicles based on a spatial proximity, similarity of direction, and similarity of average speed or momentum of the sub clusters; and establishing vehicle to vehicle communication between vehicles in the cluster of vehicles.
Device for applying an edge strip to a narrow edge of a workpiece, more particularly of wood or wood substitute, with a radiation source for activating an adhesive layer or an adhesion- improving coating, wherein the radiation source is a radiation module with a plurality of radiation elements emitting laser radiation, characterised in that the radiation module has a flat construction wherein the radiation is emitted at least approximately transversely to the main extension directions of the radiation module, and that the radiation source is disposed in a feed area between the edge strip and the edge, wherein the radiation elements are semi-conductor elements which each have a plurality of units emitting laser radiation, more particularly surface emitters, such as preferably VCSEL.
A vehicle-mounted system for providing multiple input/output (MIMO) signals channels (s1-s8) between a vehicle and stationary antenna stations (11-1, 11-2) located approximately along a track of the vehicle, the system comprising: a first antenna set and a second antenna set, mounted onto a vehicle, each comprising a plurality of antennas (A11, A12, A21, A22), wherein said first antenna set (A11, A12) is polarized approximately orthogonally to said second antenna set (A21, A22); and wherein at least one antenna of the first antenna set and at least one antenna of the second antenna set have antenna patterns in essentially opposite direction to at least a second antenna of the first antenna set and at least a second antenna of the second antenna set; and wherein the antenna pattern of the at least one antenna of the first antenna set and the antenna pattern of the at least one antenna of the second antenna set are directed essentially parallel to the track, and wherein under operation conditions the first antenna set and the second antenna set are mounted below roof level onto a convex-shaped vehicle roof of the vehicle, such that an axis of the first antenna set (A1, A11, A12) is approximately perpendicular to an axis of the second antenna set (A2, A21, A22).
A chip scale isolator device, comprising: a first layer of a first dielectric material formed over a substrate; a second layer of the first dielectric material formed on the first layer, wherein the second layer is delimited by a periphery and at least some parts of the second layer do not extend to or beyond a periphery of the first layer and in which a spatial extent of the second layer is contained within and is less than a spatial extent of the first layer; a layer of a second dielectric material formed over an uppermost one of the layers of the first dielectric material, wherein the layer of the second dielectric material has a higher relative permittivity than the first dielectric material layers (90, 92) a first conductor formed beneath the first layer of the first dielectric material; and a second conductor formed above the layer of the second dielectric material. a first layer of a first dielectric material formed over a substrate; a second layer of the first dielectric material formed on the first layer, wherein the second layer is delimited by a periphery and at least some parts of the second layer do not extend to or beyond a periphery of the first layer and in which a spatial extent of the second layer is contained within and is less than a spatial extent of the first layer; a layer of a second dielectric material formed over an uppermost one of the layers of the first dielectric material, wherein the layer of the second dielectric material has a higher relative permittivity than the first dielectric material layers (90, 92) a first conductor formed beneath the first layer of the first dielectric material; and a second conductor formed above the layer of the second dielectric material.
A recombinant adenovirus comprising: (i) an E1A polypeptide comprising a modification in an Rb-binding site; and (ii) an E4orf6/7 polypeptide comprising one or more modifications, or a deletion of all of the E4orf6/7 gene, wherein the recombinant adenovirus selectively replicates in Rb-deficient cells. (i) an E1A polypeptide comprising a modification in an Rb-binding site; and (ii) an E4orf6/7 polypeptide comprising one or more modifications, or a deletion of all of the E4orf6/7 gene, wherein the recombinant adenovirus selectively replicates in Rb-deficient cells.
A method for device to device, D2D, communication, characterized by comprising: determining, by a terminal device, a resource pool for data transmission from a plurality of resource pools, according to a transmission mode used by the terminal device, a version of a communication protocol supported by the terminal device, and whether the terminal device has a sensing capability, wherein different resource pools in the plurality of resource pools are used for data transmission by different types of terminal devices, respectively, and at least one of the following information of the different types of terminal devices is different: a transmission mode in use, a supported version of a communication protocol, and whether or not there is the sensing capability; and performing, by the terminal device, data transmission using a time-frequency resource in the resource pool; wherein the transmission mode used by the terminal device comprises a first transmission mode or a second transmission mode, the first transmission mode is mode 3, the second transmission mode is mode 4, and a resource pool of a terminal device that does not have the sensing capability and supports the second transmission mode is different from a resource pool of a terminal device that supports the first transmission mode. determining, by a terminal device, a resource pool for data transmission from a plurality of resource pools, according to a transmission mode used by the terminal device, a version of a communication protocol supported by the terminal device, and whether the terminal device has a sensing capability, wherein different resource pools in the plurality of resource pools are used for data transmission by different types of terminal devices, respectively, and at least one of the following information of the different types of terminal devices is different: a transmission mode in use, a supported version of a communication protocol, and whether or not there is the sensing capability; and performing, by the terminal device, data transmission using a time-frequency resource in the resource pool; wherein the transmission mode used by the terminal device comprises a first transmission mode or a second transmission mode, the first transmission mode is mode 3, the second transmission mode is mode 4, and a resource pool of a terminal device that does not have the sensing capability and supports the second transmission mode is different from a resource pool of a terminal device that supports the first transmission mode.
A sorbent cartridge, comprising: at least one reusable module containing one or more rechargeable sorbent materials, and a second module connected in series and forming a sorbent cartridge, the at least one reusable module having one or more connectors (133,134,135,136) selectively fluidly connectable to any part of a fluid flow path selected from any one of a wash line, a bypass line, a fluid line or the second module; wherein the wash line is a line fluidly connectable to a recharger to direct fluid between the recharger and the reusable module; wherein the bypass line is a line fluidly connectable to another module; and wherein the fluid line is fluidly connectable to any portion of a dialysis circuit; and wherein the recharger contains solutions for recharging the sorbent material within the reusable module; said sorbent cartridge further comprising at least one valve (174,175,176,177) positioned before and/or after the modules on the connectors to selectively direct flow through at least one module, wash line, recharger, or bypass line; wherein the reusable module is configured to be in an inline state by being fluidly connected to any one of the fluid line or the bypass line, and wherein the reusable module is configured to be in an off-line state by being fluidly connected to the recharger, wherein "in-line" refers to a state in which the module is fluidly connected to a dialysis machine, dialysis flow path or dialysis circuit, and wherein "off-line" refers to a state in which the module is fluidly disconnected from a dialysis machine, dialysis flow path or dialysis circuit. at least one reusable module containing one or more rechargeable sorbent materials, and a second module connected in series and forming a sorbent cartridge, the at least one reusable module having one or more connectors (133,134,135,136) selectively fluidly connectable to any part of a fluid flow path selected from any one of a wash line, a bypass line, a fluid line or the second module; wherein the wash line is a line fluidly connectable to a recharger to direct fluid between the recharger and the reusable module; wherein the bypass line is a line fluidly connectable to another module; and wherein the fluid line is fluidly connectable to any portion of a dialysis circuit; and wherein the recharger contains solutions for recharging the sorbent material within the reusable module; said sorbent cartridge further comprising at least one valve (174,175,176,177) positioned before and/or after the modules on the connectors to selectively direct flow through at least one module, wash line, recharger, or bypass line; wherein the reusable module is configured to be in an inline state by being fluidly connected to any one of the fluid line or the bypass line, and wherein the reusable module is configured to be in an off-line state by being fluidly connected to the recharger,
A vehicle controller comprising: a situation determination unit that is configured to determine whether a vehicle under manual driving control is in a situation that allows for starting autonomous driving control of the vehicle; and a transition determination unit that is configured to: switch, when the vehicle is in a situation that allows for starting autonomous driving control, control of the vehicle from manual driving control to autonomous driving control in the case where operating mode of a device (16, 17, 19) related to ensuring visibility of a driver of the vehicle is set to automatic mode to automatically control the device (16, 17, 19) and also in the case where the operating mode of the device (16, 17, 19) is set to manual mode to manually control the device (16, 17, 19) when it is determined that the driver's visibility can be ensured without operating the device (16, 17, 19); and continue control of the vehicle that remains manual driving control in the case where the operating mode of the device (16, 17, 19) is set to the manual mode and where the driver's visibility will not be ensured unless the device (16, 17, 19) operates. a situation determination unit that is configured to determine whether a vehicle under manual driving control is in a situation that allows for starting autonomous driving control of the vehicle; and a transition determination unit that is configured to: switch, when the vehicle is in a situation that allows for starting autonomous driving control, control of the vehicle from manual driving control to autonomous driving control in the case where operating mode of a device (16, 17, 19) related to ensuring visibility of a driver of the vehicle is set to automatic mode to automatically control the device (16, 17, 19) and also in the case where the operating mode of the device (16, 17, 19) is set to manual mode to manually control the device (16, 17, 19) when it is determined that the driver's visibility can be ensured without operating the device (16, 17, 19); and continue control of the vehicle that remains manual driving control in the case where the operating mode of the device (16, 17, 19) is set to the manual mode and where the driver's visibility will not be ensured unless the device (16, 17, 19) operates. switch, when the vehicle is in a situation that allows for starting autonomous driving control, control of the vehicle from manual driving control to autonomous driving control in the case where operating mode of a device (16, 17, 19) related to ensuring visibility of a driver of the vehicle is set to automatic mode to automatically control the device (16, 17, 19) and also in the case where the operating mode of the device (16, 17, 19) is set to manual mode to manually control the device (16, 17, 19) when it is determined that the driver's visibility can be ensured without operating the device (16, 17, 19); and continue control of the vehicle that remains manual driving control in the case where the operating mode of the device (16, 17, 19) is set to the manual mode and where the driver's visibility will not be ensured unless the device (16, 17, 19) operates.
A swash plate of a swash plate-type compressor comprising a swash plate and shoes which slide thereon, wherein an iron, copper or aluminium-based substrate of the swash plate is covered with a resin-based coating layer with or without intermediation of an intermediate layer, characterised by said resin-based coating layer consisting of 5 to 60 mass% of spherical graphite particles having an average particle diameter of 5 to 50 μm, and optionally 1 to 70 mass% of one or more species of MoS 2, PTFE, WS 2, h-BN, and CF, and, a balance of one or more species selected from polyimide resin and polyamide imide resin, with the proviso that said spherical graphite particles excepting minute particles having a particle diameter 0.5 times or smaller the average particle diameter, have an average shape coefficient (Y AVE), as defined below, falling within a range of 1 to 4, and further 70% or more in number of the spherical graphite particles have a shape coefficient, as defined below, within a range of 1 to 1.5, Y AVE = total PM i 2 / 4 πA i / i Y = PM 2 / 4 ⁢ πA wherein "total" indicates that a value [] is totalized for number "i", "PM" indicates the circumferential length of one particle, "A" indicates a cross sectional area of one particle, and "i" indicates the measurement number, and wherein in a case of optionally containing a solid lubricant of MoS 2, PTFE, WS 2, h-BN, and CF, the total content of the solid lubricant and spherical graphite is 10 to 80 mass %.
A solid pharmaceutical composition for the production of oral dosage forms, in the form of lozenges, characterized in that it is glucose free and it comprises: - flurbiprofen, or a pharmaceutically acceptable salt or an ester thereof, in an amount from between 2.5 to 20.0 mg, and pharmaceutically acceptable excipients, according to the following percentages: - Flurbiprofen: 0.25-1.0% (w/w) - Lubricant agent(s):glycerol dibehenate, 1.0-5.0% (w/w) - Sweetener agent(s): acesulfame potassium, 0.5-5.0% (w/w) - Diluent agent(s): mannitol, 84.0-98.0% (w/w) - Binder agent(s):copovidone, 0.25-5.0% (w/w). - flurbiprofen, or a pharmaceutically acceptable salt or an ester thereof, in an amount from between 2.5 to 20.0 mg, and pharmaceutically acceptable excipients, according to the following percentages: - Flurbiprofen: 0.25-1.0% (w/w) - Lubricant agent(s):glycerol dibehenate, 1.0-5.0% (w/w) - Sweetener agent(s): acesulfame potassium, 0.5-5.0% (w/w) - Diluent agent(s): mannitol, 84.0-98.0% (w/w) - Binder agent(s):copovidone, 0.25-5.0% (w/w). - Flurbiprofen: 0.25-1.0% (w/w) - Lubricant agent(s):glycerol dibehenate, 1.0-5.0% (w/w) - Sweetener agent(s): acesulfame potassium, 0.5-5.0% (w/w) - Diluent agent(s): mannitol, 84.0-98.0% (w/w) - Binder agent(s):copovidone, 0.25-5.0% (w/w).
Screen-printing squeegee having an elastic application element and a holding apparatus for the application element, the holding apparatus being divided, as viewed over the width of the application element, into a plurality of holding sections which can move with respect to one another, characterized in that two leaf-spring elements (20, 22) are provided interconnecting the holding sections which can move with respect to one another, in that the leaf-spring elements (20, 22) each have a leaf spring (24, 26) which is contiguous, extends at least over the width of the application element, and from which fastening flanges (28, 30) extend to the individual holding sections, and in that a respective leaf-spring element (20, 22) with holding flanges (28, 30) is provided in front of and behind the application element, as viewed in the printing direction.
A method of producing a copper and scandium free aluminium alloy wrought product, the method comprising: (a) providing a molten body of an aluminium base alloy consisting of 0.01 to 1.5 weight percent silver; 1.0 to 3.0 weight percent magnesium; 4.0 to 10.0 weight percent zinc; 0.05 to 0.25 weight percent zirconium; a maximum of 0.15 weight percent iron; a maximum of 0.15 weight percent silicon; and a remainder aluminium, and unavoiable impurities wherein the remainder does not include copper and scandium; (b) casting the molten body of the aluminium base alloy to provide a solidified body; (c) homogenizing the solidified body; (d) extruding, rolling or forging the solidified body to produce a wrought product; (e) solution heat treating the wrought product in a temperature range of about 465°C (870°F) to about 485°C (900°F) for about 5 to about 120 minutes; (f) cold working the wrought product; and (g) artificially aging the wrought product. (a) providing a molten body of an aluminium base alloy consisting of 0.01 to 1.5 weight percent silver; 1.0 to 3.0 weight percent magnesium; 4.0 to 10.0 weight percent zinc; 0.05 to 0.25 weight percent zirconium; a maximum of 0.15 weight percent iron; a maximum of 0.15 weight percent silicon; and a remainder aluminium, and unavoiable impurities wherein the remainder does not include copper and scandium; (b) casting the molten body of the aluminium base alloy to provide a solidified body; (c) homogenizing the solidified body; (d) extruding, rolling or forging the solidified body to produce a wrought product; (e) solution heat treating the wrought product in a temperature range of about 465°C (870°F) to about 485°C (900°F) for about 5 to about 120 minutes; (f) cold working the wrought product; and (g) artificially aging the wrought product.