mhurhangee/patent-ind-claim-en huggingface dataset:
Communication system for a rail vehicle , comprising: - a communication network which has at least one functional device (41-47) which is formed by a plurality of network components which can be addressed jointly using a functional network address, o wherein the at least one functional device (43; 44; 46) is assigned the functional network address (TW1; TW2; TW3) for addressing the functional device (43; 44; 46) by means of a control application , o wherein the functional network address (TW1; TW2; TW3) has a function-specific portion (TW) which represents a function of the functional device (43; 44; 46) in a predefined configuration of the rail vehicle , and o wherein the functional network address (TW1; TW2; TW3) comprises a relative portion ("1"; "2"; "3") which identifies a functional device (43; 44; 46) to be addressed among a plurality of functional devices of the same function (TW), and - a communication device which is embodied to map the functional network address (TW3) to a network address of a network component of a configuration-dependent network structure of the rail vehicle . - a communication network which has at least one functional device (41-47) which is formed by a plurality of network components which can be addressed jointly using a functional network address, o wherein the at least one functional device (43; 44; 46) is assigned the functional network address (TW1; TW2; TW3) for addressing the functional device (43; 44; 46) by means of a control application , o wherein the functional network address (TW1; TW2; TW3) has a function-specific portion (TW) which represents a function of the functional device (43; 44; 46) in a predefined configuration of the rail vehicle , and o wherein the functional network address (TW1; TW2; TW3) comprises a relative portion ("1"; "2"; "3") which identifies a functional device (43; 44; 46) to be addressed among a plurality of functional devices of the same function (TW), and o wherein the at least one functional device (43; 44; 46) is assigned the functional network address (TW1; TW2; TW3) for addressing the functional device (43; 44; 46) by means of a control application , o wherein the functional network address (TW1; TW2; TW3) has a function-specific portion (TW) which represents a function of the functional device (43; 44; 46) in a predefined configuration of the rail vehicle , and o wherein the functional network address (TW1; TW2; TW3) comprises a relative portion ("1"; "2"; "3") which identifies a functional device (43; 44; 46) to be addressed among a plurality of functional devices of the same function (TW), and - a communication device which is embodied to map the functional network address (TW3) to a network address of a network component of a configuration-dependent network structure of the rail vehicle .
A display device comprising: a substrate where an emission area (EA) and a non-emission area (NEA) are defined; a circuit element layer disposed on the substrate and having circuit elements; an overcoat layer covering the circuit element layer; an auxiliary electrode disposed on the overcoat layer in the non-emission area (NEA) and having multiple layers with a reflective layer therebetween; an electron transport layer covering the auxiliary electrode , and a cathode electrode disposed on the electron transport layer , wherein the auxiliary electrode includes an electrode hole (H) passing through the multiple layers, and wherein the reflective layer includes at least one protrusion (PR) protruding toward the inside of the electrode hole (H) from a sidewall of the electrode hole (H) and contacting the cathode electrode . a substrate where an emission area (EA) and a non-emission area (NEA) are defined; a circuit element layer disposed on the substrate and having circuit elements; an overcoat layer covering the circuit element layer; an auxiliary electrode disposed on the overcoat layer in the non-emission area (NEA) and having multiple layers with a reflective layer therebetween; an electron transport layer covering the auxiliary electrode , and a cathode electrode disposed on the electron transport layer , wherein the auxiliary electrode includes an electrode hole (H) passing through the multiple layers, and wherein the reflective layer includes at least one protrusion (PR) protruding toward the inside of the electrode hole (H) from a sidewall of the electrode hole (H) and contacting the cathode electrode .
Use of a composition as gear lubricant, said composition comprising: - at least 97 % by weight, relative to the total weight of the lubricant composition, of at least one hydrocarbon oil having a weight content of isoparaffins ranging from 90 to 100 %, a weight content of normal paraffins ranging from 0 to 10 % and a carbon content of biological origin higher than or equal to 90 % relative to the total weight of the hydrocarbon oil, and - at least 0.01 % by weight, relative to the total weight of the lubricant composition, of at least one additive chosen from among antiwear additives, extreme pressure additives, anticorrosion additives, metal deactivator additives, defoaming additives, antioxidant additives chosen from among phenolic antioxidants, and mixtures thereof, wherein the hydrocarbon oil has kinematic viscosity at 40 ° C lower than or equal to 5 cSt, the quantity of isoparaffins and normal paraffins being determined by gas phase chromatography, and the biocarbon content being given according to standards ASTM D 6866-12, method B (ASTM D 6866-06) and ASTM D 7026 (ASTM D 7026-04). - at least 97 % by weight, relative to the total weight of the lubricant composition, of at least one hydrocarbon oil having a weight content of isoparaffins ranging from 90 to 100 %, a weight content of normal paraffins ranging from 0 to 10 % and a carbon content of biological origin higher than or equal to 90 % relative to the total weight of the hydrocarbon oil, and - at least 0.01 % by weight, relative to the total weight of the lubricant composition, of at least one additive chosen from among antiwear additives, extreme pressure additives, anticorrosion additives, metal deactivator additives, defoaming additives, antioxidant additives chosen from among phenolic antioxidants, and mixtures thereof,
A compound of general formula (I) in which R 1 represents a group of the formula in which # 1 represents the point of attachment to the nitrogen atom, Ar represents a group of the formula in which # 2 represents the point of attachment to the nitrogen atom, R 2A represents a group selected from a chlorine atom, a bromine atom, trifluoromethyl, trifluoromethoxy, ethoxycarbonyl and -C(=O)NH 2 , R 2B represents a group selected from a chlorine atom, trifluoromethyl, and ethoxycarbonyl, or a pharmaceutically acceptable salt, hydrate and/or solvate thereof. R 1 represents a group of the formula in which # 1 represents the point of attachment to the nitrogen atom, # 1 represents the point of attachment to the nitrogen atom, Ar represents a group of the formula in which # 2 represents the point of attachment to the nitrogen atom, R 2A represents a group selected from a chlorine atom, a bromine atom, trifluoromethyl, trifluoromethoxy, ethoxycarbonyl and -C(=O)NH 2 , R 2B represents a group selected from a chlorine atom, trifluoromethyl, and ethoxycarbonyl, # 2 represents the point of attachment to the nitrogen atom, R 2A represents a group selected from a chlorine atom, a bromine atom, trifluoromethyl, trifluoromethoxy, ethoxycarbonyl and -C(=O)NH 2 , R 2B represents a group selected from a chlorine atom, trifluoromethyl, and ethoxycarbonyl,
An apparatus comprising: a ring-shaped portion formed in a ring at least a part of the ring being elastically deformable and at least a portion of the ring being holdable by a user; a detector configured to detect deformation of the ring formed by the ring-shaped portion; and a main portion secured to the ring formed by the ring-shaped portion to house the detector, wherein the main portion comprises: an attachment portion to which a game controller is attachable, the attachment portion is on one side of the main portion that is closer to a central axis of the ring formed by the ring-shaped portion; a terminal for electrical connection with the game controller; and a transmitter configured to transmit data regarding a detection result of the detector to the game controller through the terminal. a ring-shaped portion formed in a ring at least a part of the ring being elastically deformable and at least a portion of the ring being holdable by a user; a detector configured to detect deformation of the ring formed by the ring-shaped portion; and a main portion secured to the ring formed by the ring-shaped portion to house the detector, wherein the main portion comprises: an attachment portion to which a game controller is attachable, the attachment portion is on one side of the main portion that is closer to a central axis of the ring formed by the ring-shaped portion; a terminal for electrical connection with the game controller; and a transmitter configured to transmit data regarding a detection result of the detector to the game controller through the terminal. an attachment portion to which a game controller is attachable, the attachment portion is on one side of the main portion that is closer to a central axis of the ring formed by the ring-shaped portion; a terminal for electrical connection with the game controller; and a transmitter configured to transmit data regarding a detection result of the detector to the game controller through the terminal.
An offshore platform for use in combination with an offshore rig , comprising: an upper deck defining an upper deck aperture which is alignable with a rig aperture of the offshore rig , when said offshore rig extends over the upper deck , to permit objects to extend between the offshore rig and through the upper deck ; and a sheath arrangement aligned with the upper deck aperture and extending upwardly relative to the upper deck to be alignable with the rig aperture , wherein the sheath arrangement defines a confinement zone for confining objects which pass downwardly from the offshore rig through the rig aperture . an upper deck defining an upper deck aperture which is alignable with a rig aperture of the offshore rig , when said offshore rig extends over the upper deck , to permit objects to extend between the offshore rig and through the upper deck ; and a sheath arrangement aligned with the upper deck aperture and extending upwardly relative to the upper deck to be alignable with the rig aperture , wherein the sheath arrangement defines a confinement zone for confining objects which pass downwardly from the offshore rig through the rig aperture .
A sole structure , comprising: a midsole component having an inner recessed surface and an outer surface ; the midsole component including a plurality of recessed portions arranged in an auxetic configuration in the outer surface ; the plurality of recessed portions including a first recessed portion ; the first recessed portion being bordered by at least a first sole portion and a second sole portion ; the first sole portion and the second sole portion being connected by a junction ; the first sole portion having a first elevated portion ; the second sole portion having a second elevated portion ; the first elevated portion having a first elevated surface; the first elevated surface being located a first distance away from the inner recessed surface ; the second elevated portion having a second elevated surface; the second elevated surface being located a second distance away from the inner recessed surface ; the junction having a junction surface; the junction surface being located a third distance away from the inner recessed surface ; wherein the first distance and the second distance are both larger than the third distance, wherein the first sole portion has a first sidewall surface , the first sidewall surface bordering a portion of the first recessed portion , characterized in that the first elevated portion has a first elevated sidewall surface, at least a portion of the first elevated sidewall surface partially defining the first recessed portion , and wherein the first elevated sidewall surface is coincident with the first sidewall surface . a midsole component having an inner recessed surface and an outer surface ; the midsole component including a plurality of recessed portions arranged in an auxetic configuration in the outer surface ; the plurality of recessed portions including a first recessed portion ; the first recessed portion being bordered by at least a first sole portion and a second sole portion ; the first sole portion and the second sole portion being connected by a junction ; the first sole portion having a first elevated portion ; the second sole portion having a second elevated portion ; the first elevated portion having a first elevated surface; the first elevated surface being located a first distance away from the inner recessed surface ; the second elevated portion having a second elevated surface; the second elevated surface being located a second distance away from the inner recessed surface ; the junction having a junction surface; the junction surface being located a third distance away from the inner recessed surface ; wherein the first distance and the second distance are both larger than the third distance, wherein the first sole portion has a first sidewall surface , the first sidewall surface bordering a portion of the first recessed portion , characterized in that the first elevated portion has a first elevated sidewall surface, at least a portion of the first elevated sidewall surface partially defining the first recessed portion , and wherein the first elevated sidewall surface is coincident with the first sidewall surface .
A method for preparing a plastic film, comprising: applying a coating composition comprising a tri- to hexafunctional acrylate-based monomer, a thermosetting prepolymer composition, an inorganic fine particle, and a photoinitiator to at least one side of a support substrate; and curing the coating composition applied to the support substrate with light and heat to form a coating layer, wherein the tri- to hexafunctional acrylate-based monomer and the thermosetting prepolymer composition are used at a weight ratio of 1:0.1 to 1:1.2, as measured on the basis of solid components thereof, wherein the plastic film has a pencil hardness of 6H or more at a load of 1 kg, evaluated according to the Japanese Standard JIS K5400. applying a coating composition comprising a tri- to hexafunctional acrylate-based monomer, a thermosetting prepolymer composition, an inorganic fine particle, and a photoinitiator to at least one side of a support substrate; and curing the coating composition applied to the support substrate with light and heat to form a coating layer, wherein the tri- to hexafunctional acrylate-based monomer and the thermosetting prepolymer composition are used at a weight ratio of 1:0.1 to 1:1.2, as measured on the basis of solid components thereof, wherein the plastic film has a pencil hardness of 6H or more at a load of 1 kg, evaluated according to the Japanese Standard JIS K5400.
A self-holding magnet, comprising: - a magnetic circuit comprising a stator and a first armature ; - a stop; - a stroke starting position defined by the stop, in which between stator and first armature one or more working residual air gaps are present; - at least one spring which exerts a spring force which urges the first armature away from the stop; - a magnetic shunt (33; 31, δ20, 21, 32); - one or more permanent magnets for the excitation of the magnetic circuit; - one or more trigger coils for the counter-excitation of the magnetic circuit, wherein the magnetic circuit is dimensioned such that it is able to magnetically hold its first armature in the stroke starting position against the spring force, wherein in the stroke starting position the magnetic shunt has a reluctance which is of the same order of magnitude as the reluctance of the working residual air gap or in the case of a series connection of a plurality of working residual air gaps as the series reluctance of the working residual air gaps, wherein working air gap(s) (δ10, δ11) and shunt (33; 31, δ20, 21, 32) are magnetically connected in parallel with respect to the permanent-magnetically generated flux, but are connected in series with respect to the flux generated by the trigger coil(s), wherein the trigger coil(s) are energized such that the magnetic flux in the working air gap(s) is attenuated and the magnetic flux in the shunt is increased, which leads to the relaxation of the spring when the amount of the magnetic holding force falls below the spring force; characterized in that the stop is designed as a resilient stop, wherein the stop itself has spring properties and is 100 to 10,000 times stiffer than the at least one spring. - a magnetic circuit comprising a stator and a first armature ; - a stop; - a stroke starting position defined by the stop, in which between stator and first armature one or more working residual air gaps are present; - at least one spring which exerts a spring force which urges the first armature away from the stop; - a magnetic shunt (33; 31, δ20, 21, 32); - one or more permanent magnets for the excitation of the magnetic circuit; - one or more trigger coils for the counter-excitation of the magnetic circuit,
A control cable mechanism for use with an implant delivery system comprising: a wire having a distal end and a proximal end, said distal end including a recess defining a hook portion , said proximal end operably coupled to a slide; a sheath surrounding said wire , said sheath having a distal end and a proximal end, said distal end including a mouth , said proximal end attached to a housing, said housing slidingly containing said slide, wherein said wire slides longitudinally within said sheath; wherein said slide is movable between a distal position and a proximal position, in said distal position, said wire is advanced distally within said sheath to an open position and in said proximal position, said wire is retracted proximally within said sheath to a closed position; wherein said recess is sized to receive a component of a medical implant; characterized in that said mouth has a slot shaped such that in said closed position, said recess and said slot combine to form a closed transverse passage in which said component is trapped; wherein in said open position, said hook portion extends distally from said mouth such that an implant is released from said recess. a wire having a distal end and a proximal end, said distal end including a recess defining a hook portion , said proximal end operably coupled to a slide; a sheath surrounding said wire , said sheath having a distal end and a proximal end, said distal end including a mouth , said proximal end attached to a housing, said housing slidingly containing said slide, wherein said wire slides longitudinally within said sheath; wherein said slide is movable between a distal position and a proximal position, in said distal position, said wire is advanced distally within said sheath to an open position and in said proximal position, said wire is retracted proximally within said sheath to a closed position; wherein said recess is sized to receive a component of a medical implant; characterized in that said mouth has a slot shaped such that in said closed position, said recess and said slot combine to form a closed transverse passage in which said component is trapped; wherein in said open position, said hook portion extends distally from said mouth such that an implant is released from said recess.
A method performed by a testing device for testing a communication node , wherein the communication node is an Active Antenna System, AAS, base station, the method comprising: measuring a test parameter associated with Radio Frequency, RF, characteristics of the communication node when it is located at a test location during a first condition, wherein the communication node is configured with a node setting during the measurement in the first condition; characterized by : measuring the test parameter associated with the RF characteristics of the communication node when it is located at the test location during a second condition, wherein the communication node is configured with the same node setting in the second condition as in the first condition; checking whether a result parameter associated with the test parameter measured during the first and second condition fulfills a requirement, wherein the first condition is a normal operating condition and the second condition is an extreme operating condition, wherein the first condition is different from the second condition with regards to temperature and vibration. measuring the test parameter associated with the RF characteristics of the communication node when it is located at the test location during a second condition, wherein the communication node is configured with the same node setting in the second condition as in the first condition; checking whether a result parameter associated with the test parameter measured during the first and second condition fulfills a requirement, wherein the first condition is a normal operating condition and the second condition is an extreme operating condition, wherein the first condition is different from the second condition with regards to temperature and vibration.
A method for wireless communications, comprising: determining a power state of each of a plurality of wireless nodes; changing from a first antenna mode used for communicating with the wireless nodes using a first number of spatial streams to a second antenna mode used for communicating with the wireless nodes using a second number of spatial streams, based on the determined power states of the wireless nodes; enabling a physical layer error detection mode upon changing to the second antenna mode, the physical layer error detection mode being capable of detecting one or more transmissions at one or more rates not supported in the second antenna mode, wherein the physical layer error detection mode comprises comparing a number of spatial streams indicated in a signal field of a preamble of a packet to a number of spatial streams supported in the second antenna mode; and after detecting said one or more transmissions at one or more rates not supported in the second antenna mode, changing from the second antenna mode to a different antenna mode. determining a power state of each of a plurality of wireless nodes; changing from a first antenna mode used for communicating with the wireless nodes using a first number of spatial streams to a second antenna mode used for communicating with the wireless nodes using a second number of spatial streams, based on the determined power states of the wireless nodes; enabling a physical layer error detection mode upon changing to the second antenna mode, the physical layer error detection mode being capable of detecting one or more transmissions at one or more rates not supported in the second antenna mode, wherein the physical layer error detection mode comprises comparing a number of spatial streams indicated in a signal field of a preamble of a packet to a number of spatial streams supported in the second antenna mode; and after detecting said one or more transmissions at one or more rates not supported in the second antenna mode, changing from the second antenna mode to a different antenna mode.