mhurhangee/ep-ind-claims huggingface dataset:
A ride attraction system, comprising: a first tower track and a second tower track; a first ride vehicle and second ride vehicle configured to accommodate one or more riders, wherein the first ride vehicle is coupled to and configured to move relative to the first tower track, and the second ride vehicle is coupled to and configured to move relative to the second tower track, and wherein the first ride vehicle comprises one or more user input devices; an image system configured to display a ride environment, wherein the one or more user input devices are configured to enable the one or more riders to interact with elements of the displayed ride environment via the one or more user input devices; and a controller communicatively coupled to the first ride vehicle, the second ride vehicle, and the image system, wherein the controller is configured to control movement of the first ride vehicle relative to the first tower track and the second vehicle relative to the second tower track based on signals from the one or more user input devices, and wherein in response to the signals, the controller is configured to cause the first ride vehicle to move vertically along the first tower track while causing the second ride vehicle to move vertically along the second tower track. a first tower track and a second tower track; a first ride vehicle and second ride vehicle configured to accommodate one or more riders, wherein the first ride vehicle is coupled to and configured to move relative to the first tower track, and the second ride vehicle is coupled to and configured to move relative to the second tower track, and wherein the first ride vehicle comprises one or more user input devices; an image system configured to display a ride environment, wherein the one or more user input devices are configured to enable the one or more riders to interact with elements of the displayed ride environment via the one or more user input devices; and a controller communicatively coupled to the first ride vehicle, the second ride vehicle, and the image system, wherein the controller is configured to control movement of the first ride vehicle relative to the first tower track and the second vehicle relative to the second tower track based on signals from the one or more user input devices, and wherein in response to the signals, the controller is configured to cause the first ride vehicle to move vertically along the first tower track while causing the second ride vehicle to move vertically along the second tower track.
A method for producing a NOx sensor comprising a NOx-decomposing electrode having a NOx-decomposing/reducing ability, formed on a solid electrolyte layer for decomposing a NOx to produce oxygen, wherein said method comprises the steps of: preparing a paste of a mixture containing a noble metal, a material used in said solid electrolyte layer, and a mixture containing silica and alumina, as a starting material; applying said paste to said solid electrolyte layer; and burning said solid electrolyte layer and said paste to form said NOx-decomposing electrode, wherein said paste contains 80% to 90% by weight of said noble metal, 9.5% to 19.8% by weight of said material used in said solid electrolyte layer, and 0.2% to 0.5% by weight of said mixture containing silica and alumina, and in that any one of the following conditions or applies: said noble metal of said electrode is platinum and said mixture containing silica and alumina contains 50-56% by weight of silica and 27.5-33.5% by weight of alumina and contains at least one material selected from Fe 2 O 3, TiO 2, CaO, MgO and K 2 O, said noble metal of said electrode is equal amounts of platinum and rhodium, and said mixture containing silica and alumina contains 50-56% by weight of silica and 27.5-33.5% by weight of alumina and contains at least one material selected from Fe 2 O 3, TiO 2, CaO, MgO and K 2 O. preparing a paste of a mixture containing a noble metal, a material used in said solid electrolyte layer, and a mixture containing silica and alumina, as a starting material; applying said paste to said solid electrolyte layer; and burning said solid electrolyte layer and said paste to form said NOx-decomposing electrode, wherein said paste contains 80% to 90% by weight of said noble metal, 9.5% to 19.8% by weight of said material used in said solid electrolyte layer, and 0.2% to 0.5% by weight of said mixture containing silica and alumina, and in that any one of the following conditions or applies: said noble metal of said electrode is platinum and said mixture containing silica and alumina contains 50-56% by weight of silica and 27.5-33.5% by weight of alumina and contains at least one material selected from Fe 2 O 3, TiO 2, CaO, MgO and K 2 O, said noble metal of said electrode is equal amounts of platinum and rhodium, and said mixture containing silica and alumina contains 50-56% by weight of silica and 27.5-33.5% by weight of alumina and contains at least one material selected from Fe 2 O 3, TiO 2, CaO, MgO and K 2 O. said noble metal of said electrode is platinum and said mixture containing silica and alumina contains 50-56% by weight of silica and 27.5-33.5% by weight of alumina and contains at least one material selected from Fe 2 O 3, TiO 2, CaO, MgO and K 2 O, said noble metal of said electrode is equal amounts of platinum and rhodium, and said mixture containing silica and alumina contains 50-56% by weight of silica and 27.5-33.5% by weight of alumina and contains at least one material selected from Fe 2 O 3, TiO 2, CaO, MgO and K 2 O.
Element as a closing insert for a depression in the ground, in particular as a covering insert for a shaft, with electronic components integrated therein, characterized in that means for visually and/or acoustically reproducing script and/or image displays and/or tones and tone sequences are provided within the element for projection outside the element.
A hydraulic drive system for a hydraulic working machine, said hydraulic drive system being provided with an engine, a variable displacement hydraulic pump drivable by power transmitted from the engine, a hydraulic actuator drivable by hydraulic oil delivered from the variable displacement hydraulic pump, an actuator control valve interposed between the variable displacement hydraulic pump and the hydraulic actuator and switchable between a feed state, in which hydraulic oil from the variable displacement hydraulic pump is fed to the hydraulic actuator, and a non-feed state, in which the hydraulic oil from the variable displacement hydraulic pump is not fed to the hydraulic actuator but is returned to a hydraulic oil reservoir, an exhaust gas purification system for trapping in a filter particulate matter in exhaust gas produced by the engine, a pressure detection means for detecting the delivery pressure of the variable displacement hydraulic pump, a delivery pressure control means for controlling a delivery pressure of the variable displacement hydraulic pump, and a control means for controlling the delivery pressure control means, and in the non-feed state, said control means being adapted to control the delivery pressure control means to increase the delivery pressure of the variable displacement hydraulic pump such that a load on the engine is increased to raise a temperature of the exhaust gas to a temperature needed for combustion of the particulate matter, characterized in that: the delivery pressure control means is a variable restrictor; and the control means controls the variable restrictor such that a delivery pressure to be detected by the pressure detection means will become equal to a preset delivery pressure that corresponds to a minimum level needed to raise a temperature of the exhaust gas to a temperature required for the combustion of particulate matter. the delivery pressure control means is a variable restrictor; and the control means controls the variable restrictor such that a delivery pressure to be detected by the pressure detection means will become equal to a preset delivery pressure that corresponds to a minimum level needed to raise a temperature of the exhaust gas to a temperature required for the combustion of particulate matter.
A system (100, 200, 300, 400, 500, 800, 900, 1000, 1100, 1200, 1300, 1400, 1500) for preparing a cellular biological sample for analysis, wherein the cellular biological sample is mounted on a substrate (108, 208, 308, 408, 708, 804, 1212, 1422, 1516), comprising: a. an introducer assembly including two or more inlets (116 or 118) configured to receive at least one fluid used to prepare the cellular biological sample for analysis and indicia that specify the order in the at least one fluid is introduced into the two or more fluid inlets of the introducer assembly; b. a conveyor assembly configured to move the at least one fluid across at least a portion of the substrate (108, 208, 308, 408, 708, 804, 1212, 1422, 1516), wherein the conveyor assembly includes (i) a treatment portion where the at least one fluid comes into contact with at least a portion of the cellular biological sample,; (ii) a capillary passage fluidically coupled to the one or more inlets and the treatment potion; and (iii) a fluid collector assembly in fluidic communication with the treatment portion, the fluid collector assembly including an absorbent pad that receives fluid from the sample treatment portion and provides a motive force to move fluids from the one or more inlets (116 or 118) of the introducer assembly through the sample treatment portion; and, a substrate mating assembly configured to hold the substrate (108, 208, 308, 408, 708, 804, 1212, 1422, 1516) against at least a portion of the conveyor assembly. a. an introducer assembly including two or more inlets (116 or 118) configured to receive at least one fluid used to prepare the cellular biological sample for analysis and indicia that specify the order in the at least one fluid is introduced into the two or more fluid inlets of the introducer assembly; b. a conveyor assembly configured to move the at least one fluid across at least a portion of the substrate (108, 208, 308, 408, 708, 804, 1212, 1422, 1516), wherein the conveyor assembly includes (i) a treatment portion where the at least one fluid comes into contact with at least a portion of the cellular biological sample,; (ii) a capillary passage fluidically coupled to the one or more inlets and the treatment potion; and (iii) a fluid collector assembly in fluidic communication with the treatment portion, the fluid collector assembly including an absorbent pad that receives fluid from the sample treatment portion and provides a motive force to move fluids from the one or more inlets (116 or 118) of the introducer assembly through the sample treatment portion; and,
A satellite communication system comprising: a satellite as a relay station and another satellite as an another relay station to each transmit a signal including a control frame and a data frame; wherein each of the relay stations (2-1, 2-2) comprises a radio signal transmitter, an aircraft as a terminal to receive the signals from the relay stations; the radio signal transmitters are configured to transmit, to the same terminal, the control frame in a timeslot that is shared for the relay stations (2-1, 2-2) and to transmit, to the terminal the data frame in a timeslot that is not shared for the relay stations (2-1, 2-2); the terminal comprises an array antenna including an aperture; and an antenna pattern calculation unit configured to calculate antenna patterns of the array antenna, the antenna patterns including dividing the aperture to correspondingly orient each of the aperture divisions toward the relay stations (2-1, 2-2) when the control frames are received, and orienting the aperture toward one of the relay stations (2-1, 2-2) when the data frame is received, and in that the satellite communication system further comprises a control station to control connection between the terminal and each of the relay stations (2-1, 2-2), wherein the control station comprises a forward link data amount acquisition unit to obtain a forward link data amount for the terminal that is connected with the relay stations (2-1, 2-2) and a relay station count determination unit to determine, by using the data amount, a number of one or more relay stations (2-1, 2-2) to be connected to the terminal. a satellite as a relay station and another satellite as an another relay station to each transmit a signal including a control frame and a data frame; wherein each of the relay stations (2-1, 2-2) comprises a radio signal transmitter, an aircraft as a terminal to receive the signals from the relay stations; the radio signal transmitters are configured to transmit, to the same terminal, the control frame in a timeslot that is shared for the relay stations (2-1, 2-2) and to transmit, to the terminal the data frame in a timeslot that is not shared for the relay stations (2-1, 2-2); the terminal comprises an array antenna including an aperture; and an antenna pattern calculation unit configured to calculate antenna patterns of the array antenna, the antenna patterns including dividing the aperture to correspondingly orient each of the aperture divisions toward the relay stations (2-1, 2-2) when the control frames are received, and orienting the aperture toward one of the relay stations (2-1, 2-2) when the data frame is received, and in that the satellite communication system further comprises a control station to control connection between the terminal and each of the relay stations (2-1, 2-2), wherein the control station comprises a forward link data amount acquisition unit to obtain a forward link data amount for the terminal that is connected with the relay stations (2-1, 2-2) and a relay station count determination unit to determine, by using the data amount, a number of one or more relay stations (2-1, 2-2) to be connected to the terminal.
A method for a user equipment, UE, performing random access to a network, the method comprising: receiving, by the UE, configuration information from a network; determining, by the UE, multiple numbers of random access preamble transmissions with regard to a prioritized event based on the configuration information, wherein the prioritized event includes a first event where the UE is initiating a random access procedure while the UE is not in radio resource control, RRC, connected and a second event where the UE is initiating the random access procedure when uplink data becomes available for transmission in a logical channel, wherein the multiple numbers are differently determined based on each of the first event and the second event; monitoring, by the UE, a random access response after an end of a random access preamble transmission based on the multiple number of random access preamble transmissions until a last random access response window ends, wherein a starting time of the last random access response window is based on a last one of the multiple number of random access preamble transmissions; and processing, by the UE, a retransmission of the random access preamble transmission, if none of the random access response is received until the last random access response window ends. receiving, by the UE, configuration information from a network; determining, by the UE, multiple numbers of random access preamble transmissions with regard to a prioritized event based on the configuration information, wherein the prioritized event includes a first event where the UE is initiating a random access procedure while the UE is not in radio resource control, RRC, connected and a second event where the UE is initiating the random access procedure when uplink data becomes available for transmission in a logical channel, wherein the multiple numbers are differently determined based on each of the first event and the second event; monitoring, by the UE, a random access response after an end of a random access preamble transmission based on the multiple number of random access preamble transmissions until a last random access response window ends, wherein a starting time of the last random access response window is based on a last one of the multiple number of random access preamble transmissions; and processing, by the UE, a retransmission of the random access preamble transmission, if none of the random access response is received until the last random access response window ends.
Body of a commercial vehicle, in particular a heavy goods vehicle, trailer or semitrailer, with at least one panel, preferably a front wall panel, a side wall panel or a roof panel and with at least one attachment part, preferably of a further panel, of a floor and/or of a rear wall frame, connected via a profile connection to the panel, wherein the at least one panel has at least two outer structure-forming top layers, wherein the profile connection is formed as a groove/spring connection of two corresponding connection profiles (16, 17) adhered together and wherein the profile connection has at least two grooves (23, 28, 33) and at least two springs (24, 26, 32) engaging with the at least two grooves (23, 28, 33), characterised in that a connection profile of the profile connection has a longitudinal side pointing outwards and adhered to an outer top layer of the panel pointing outwards.
A jetting solution, comprising: at least 50% an organic component, wherein the organic component is a C1 to a C6 alcohol; less than 0.008% of a defoamer component, wherein the defoamer component includes one or more diol alcohols and the defoamer component is a different compound than the organic component; water; and carbon nanotubes, wherein the solution comprises less than 5% of the carbon nanotubes. at least 50% an organic component, wherein the organic component is a C1 to a C6 alcohol; less than 0.008% of a defoamer component, wherein the defoamer component includes one or more diol alcohols and the defoamer component is a different compound than the organic component; water; and carbon nanotubes, wherein the solution comprises less than 5% of the carbon nanotubes.
A humidifier comprising: a tray in which water is stored; a detection plate disposed on the tray to contact the water stored in the tray; and a case assembly comprising a contact plate contacting the detection plate and a water level detection part connected to the contact plate to detect a water level within the tray on the basis of capacitance of the detection plate, wherein the detection plate comprises: a first plate vertically extending within the tray; and a second plate horizontally extending from an upper portion of the first plate, wherein a contact protrusion contacting the contact plate is disposed on the second plate, and wherein a hole through which the contact protrusion passes is defined in the case assembly, and when the case assembly is seated on the tray, the contact protrusion passes through the hole to contact the contact plate. a tray in which water is stored; a detection plate disposed on the tray to contact the water stored in the tray; and a case assembly comprising a contact plate contacting the detection plate and a water level detection part connected to the contact plate to detect a water level within the tray on the basis of capacitance of the detection plate, wherein the detection plate comprises: a first plate vertically extending within the tray; and a second plate horizontally extending from an upper portion of the first plate, wherein a contact protrusion contacting the contact plate is disposed on the second plate, and wherein a hole through which the contact protrusion passes is defined in the case assembly, and when the case assembly is seated on the tray, the contact protrusion passes through the hole to contact the contact plate. a first plate vertically extending within the tray; and a second plate horizontally extending from an upper portion of the first plate, wherein a contact protrusion contacting the contact plate is disposed on the second plate, and wherein a hole through which the contact protrusion passes is defined in the case assembly, and when the case assembly is seated on the tray, the contact protrusion passes through the hole to contact the contact plate.
Device for spraying a liquid, comprising - a base segment (2, 102), - a central segment (3, 103) which is mounted on the base segment (2, 102) in a pivotal manner about a first pivot axis, - an end segment (4, 104) which is mounted on the central segment (3, 103) in a pivotal manner about a second pivot axis that is arranged at an angle to the first pivot axis and which comprises a nozzle portion for dispensing the liquid, said nozzle portion being radially spaced from the second pivot axis, and - a feed system (6.1, 6.2, 7.1, 7.2) for the liquid, said feed system being connected to the nozzle portion, wherein the feed system (6.1, 6.2, 7.1, 7.2) comprises two end lines (6.1, 6.2) which open into the nozzle portion from different directions. - a base segment (2, 102), - a central segment (3, 103) which is mounted on the base segment (2, 102) in a pivotal manner about a first pivot axis, - an end segment (4, 104) which is mounted on the central segment (3, 103) in a pivotal manner about a second pivot axis that is arranged at an angle to the first pivot axis and which comprises a nozzle portion for dispensing the liquid, said nozzle portion being radially spaced from the second pivot axis, and - a feed system (6.1, 6.2, 7.1, 7.2) for the liquid, said feed system being connected to the nozzle portion,
A method for producing a tissue treatment product, comprising: treating a tissue matrix to produce a plurality of tissue matrix fragments having a length between 5 μm and 300 μm, wherein the plurality of tissue matrix fragments are elongated strands with frayed ends; joining a portion of the plurality of tissue matrix fragments to one another at the frayed ends, so that the frayed ends are interlocked, to form the fragments into a first sheet; joining a second portion of the plurality of tissue matrix fragments to one another at the frayed ends, so that the frayed ends are interlocked, to form the fragments into at least one additional sheet; layering and joining the at least one additional sheet to the first sheet to form the product. treating a tissue matrix to produce a plurality of tissue matrix fragments having a length between 5 μm and 300 μm, wherein the plurality of tissue matrix fragments are elongated strands with frayed ends; joining a portion of the plurality of tissue matrix fragments to one another at the frayed ends, so that the frayed ends are interlocked, to form the fragments into a first sheet; joining a second portion of the plurality of tissue matrix fragments to one another at the frayed ends, so that the frayed ends are interlocked, to form the fragments into at least one additional sheet; layering and joining the at least one additional sheet to the first sheet to form the product.
An encoding method, comprising: dividing to-be-encoded input data into M parts according to a number of levels of concatenated Polar encoding, wherein M is the number of levels of concatenated Polar encoding; and performing Polar encoding for information bits of each level of Polar encoding level by level to obtain Polar-encoded data of the input data, wherein the information bits of a next level of Polar encoding are constituted by one part of data obtained through the dividing and by the output bits of a previous level of Polar encoding. dividing to-be-encoded input data into M parts according to a number of levels of concatenated Polar encoding, wherein M is the number of levels of concatenated Polar encoding; and performing Polar encoding for information bits of each level of Polar encoding level by level to obtain Polar-encoded data of the input data, wherein the information bits of a next level of Polar encoding are constituted by one part of data obtained through the dividing and by the output bits of a previous level of Polar encoding.