mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a first base station, BS, the method comprising: receiving, from a user equipment, UE, information that indicates one or more overheating assistance parameters and a maximum quantity of component carriers, combined between the first BS and a second BS, for the UE; transmitting, to the second BS and based at least in part on receiving the information, a request to reduce a quantity of component carriers of the second BS configured for the UE such that a total quantity of component carriers, combined between the first BS and the second BS, configurable for the UE satisfies the maximum quantity of component carriers; and transmitting, to the second BS, an indication of one or more of the one or more overheating assistance parameters, wherein the one or more overheating assistance parameters include at least one of: a maximum New Radio, NR, frequency range 1, FR1, bandwidth for the UE, a maximum NR frequency range 2, FR2, bandwidth for the UE, a maximum quantity of FR1 multiple input multiple output, MIMO, layers for the UE, or a maximum quantity of FR2 MIMO layers for the UE. receiving, from a user equipment, UE, information that indicates one or more overheating assistance parameters and a maximum quantity of component carriers, combined between the first BS and a second BS, for the UE; transmitting, to the second BS and based at least in part on receiving the information, a request to reduce a quantity of component carriers of the second BS configured for the UE such that a total quantity of component carriers, combined between the first BS and the second BS, configurable for the UE satisfies the maximum quantity of component carriers; and transmitting, to the second BS, an indication of one or more of the one or more overheating assistance parameters, wherein the one or more overheating assistance parameters include at least one of: a maximum New Radio, NR, frequency range 1, FR1, bandwidth for the UE, a maximum NR frequency range 2, FR2, bandwidth for the UE, a maximum quantity of FR1 multiple input multiple output, MIMO, layers for the UE, or a maximum quantity of FR2 MIMO layers for the UE. a maximum New Radio, NR, frequency range 1, FR1, bandwidth for the UE, a maximum NR frequency range 2, FR2, bandwidth for the UE, a maximum quantity of FR1 multiple input multiple output, MIMO, layers for the UE, or a maximum quantity of FR2 MIMO layers for the UE.
A stent defining a lumen having a longitudinal axis, the stent comprising: a plurality of cylindrical rings spaced along the longitudinal axis, each of the cylindrical rings including a plurality of struts interconnected to form alternating apexes and troughs, each of the struts having a strut length, a main strut width, and an apex strut width; and a plurality of flexible connectors extending between adjacent pairs of the cylindrical rings, each of the flexible connectors including a pair of connector struts having a main connector width, an apex positioned between the pair of connector struts and having an apex connector width, and a pair of ends, wherein each of the pair of ends is connected to one of the struts of the cylindrical rings at a connection location between the apexes of the strut; characterized in that: a strut ratio of the apex strut width to the main strut width is 50% to 95%, a connector ratio of the apex connector width to the main connector width is 50% to 95%, and a connection location ratio of a length between the connection location and one of the apexes of the strut to the strut length is 60% to 90% so as to reduce foreshortening of the stent along the longitudinal axis upon radial expansion. a plurality of cylindrical rings spaced along the longitudinal axis, each of the cylindrical rings including a plurality of struts interconnected to form alternating apexes and troughs, each of the struts having a strut length, a main strut width, and an apex strut width; and a plurality of flexible connectors extending between adjacent pairs of the cylindrical rings, each of the flexible connectors including a pair of connector struts having a main connector width, an apex positioned between the pair of connector struts and having an apex connector width, and a pair of ends, wherein each of the pair of ends is connected to one of the struts of the cylindrical rings at a connection location between the apexes of the strut; characterized in that: a strut ratio of the apex strut width to the main strut width is 50% to 95%, a connector ratio of the apex connector width to the main connector width is 50% to 95%, and a connection location ratio of a length between the connection location and one of the apexes of the strut to the strut length is 60% to 90% so as to reduce foreshortening of the stent along the longitudinal axis upon radial expansion.
An accessory comprising: a main body having a communication module for communicating with a predetermined network; and a container having a main body-coupling portion to which the main body is separably coupled, wherein the main body includes an exposed portion, which is exposed in the state in which the main body is coupled to the container, and an insertion portion, which is received in the main body-coupling portion, the main body comprises a remote control module for transmitting an optical signal for controlling a predetermined apparatus, and the container comprises an external coupling portion formed so as to be attached to one surface of an external object, wherein the main body is configured to receive information through the communication module over the network, wherein the remote control module is controlled based on the information received through the communication module, and wherein the container comprises a direction-setting unit for guiding the main body to a specific direction when the container is attached to the one surface of the external object, the direction-setting unit (285, 270a) comprises a direction-setting protrusion and a direction-setting recess, the main body comprises one selected from between the direction-setting protrusion and the direction-setting recess, the container comprises the other selected from between the direction-setting protrusion and the direction-setting recess, and the direction-setting protrusion is engaged into the direction-setting recess. a main body having a communication module for communicating with a predetermined network; and a container having a main body-coupling portion to which the main body is separably coupled, wherein the main body includes an exposed portion, which is exposed in the state in which the main body is coupled to the container, and an insertion portion, which is received in the main body-coupling portion, the main body comprises a remote control module for transmitting an optical signal for controlling a predetermined apparatus, and the container comprises an external coupling portion formed so as to be attached to one surface of an external object, wherein the main body is configured to receive information through the communication module over the network, wherein the remote control module is controlled based on the information received through the communication module, and wherein the container comprises a direction-setting unit for guiding the main body to a specific direction when the container is attached to the one surface of the external object, the direction-setting unit (285, 270a) comprises a direction-setting protrusion and a direction-setting recess, the main body comprises one selected from between the direction-setting protrusion and the direction-setting recess, the container comprises the other selected from between the direction-setting protrusion and the direction-setting recess, and the direction-setting protrusion is engaged into the direction-setting recess.
A high performance sealant, comprising: 20% to 50% by weight of a natural rubber latex; 0.25% to 10% by weight of an inorganic powder; 0.10% to 5.0% by weight of a polyamide suspension; 30% to 70% by weight of an antifreeze agent including water and at least one of ethylene glycol and propylene glycol; and 2% to 10% by weight of a synthetic rubber latex. 20% to 50% by weight of a natural rubber latex; 0.25% to 10% by weight of an inorganic powder; 0.10% to 5.0% by weight of a polyamide suspension; 30% to 70% by weight of an antifreeze agent including water and at least one of ethylene glycol and propylene glycol; and 2% to 10% by weight of a synthetic rubber latex.
A tyre comprising a tread portion comprising a land region divided by a first edge extending in a tyre circumferential direction and a second edge extending in the tyre circumferential direction, wherein the land region is provided with a plurality of sipes each extending between the first edge and the second edge, the plurality of the sipes includes inclined sipes and bent sipes, the inclined sipes are inclined in a first direction with respect to a tyre axial direction, each of the bent sipes includes first inclined elements inclined in the first direction with respect to the tyre axial direction and a second inclined element inclined in a direction opposite to the first inclined elements with respect to the tyre axial direction, each of the inclined sipes is configured to have a depth larger at a center portion thereof than at both end portions thereof, and each of the bent sipes is configured to have a depth smaller at a center portion thereof than at both end portions thereof, characterised in that in each of the bent sipes, the end portions are formed by the first inclined elements and the center portion is formed by the second inclined element, and wherein a length in the tyre axial direction of the second inclined element is larger than a length in the tyre axial direction of each of the first inclined elements.
A method for producing a functionalized cis-1,4-polydiene, the method comprising the steps of: preparing a reactive polymer by polymerizing conjugated diene monomer with a lanthanide-based catalyst in the presence of less than 20% by weight of organic solvent based on the total weight of monomer, organic solvent, and resulting polymer, where the lanthanide-based catalyst is the combination of or reaction product of (a) a lanthanide compound, (b) an aluminoxane, (c) an organoaluminium compound other than an aluminoxane, and (d) a halogen-containing compound; and contacting the reactive polymer with a functionalizing agent, where the molar ratio of the aluminoxane to the lanthanide compound (Al/Ln) is from 5:1 to 1000:1, the molar ratio of the organoaluminium compound to the lanthanide compound (organo-Al/Ln) is from 1:1 to 200:1, and the molar ratio of the halogen-containing compound to the lanthanide compound (halogen/Ln) is from 2:1 to 6:1; to thereby produce a polymer with a cis-1,4-linkage content of greater than or equal to 99% and a functionality of greater than or equal to 80%, where the functionality is defined as the percentage of polymer chains comprising at least one functional group versus the total polymer chains in a polymer product.. preparing a reactive polymer by polymerizing conjugated diene monomer with a lanthanide-based catalyst in the presence of less than 20% by weight of organic solvent based on the total weight of monomer, organic solvent, and resulting polymer, where the lanthanide-based catalyst is the combination of or reaction product of (a) a lanthanide compound, (b) an aluminoxane, (c) an organoaluminium compound other than an aluminoxane, and (d) a halogen-containing compound; and contacting the reactive polymer with a functionalizing agent, where the molar ratio of the aluminoxane to the lanthanide compound (Al/Ln) is from 5:1 to 1000:1, the molar ratio of the organoaluminium compound to the lanthanide compound (organo-Al/Ln) is from 1:1 to 200:1, and the molar ratio of the halogen-containing compound to the lanthanide compound (halogen/Ln) is from 2:1 to 6:1; to thereby produce a polymer with a cis-1,4-linkage content of greater than or equal to 99% and a functionality of greater than or equal to 80%, where the functionality is defined as the percentage of polymer chains comprising at least one functional group versus the total polymer chains in a polymer product..
Switch unit and housing, wherein the switch unit comprises: at least one first contact device, at least one second contact device, a closing element which is movably mounted and/or deformable for creating and separating an electrical connection between the first contact device and the second contact device, an electrically conductive actuating element which is assigned to the closing element, a first switch circuit which contains the first contact device, the second contact device and the closing element, a second switch circuit which contains the actuating element, the closing element and the second contact device, characterised in that the housing in which the switch unit is integrated consists at least on the inside of an electrically conductive polymer which has an electrically conductive connection with the actuating element via contacting and which furthermore may be connected to an external evaluation unit via a further contact. at least one first contact device, at least one second contact device, a closing element which is movably mounted and/or deformable for creating and separating an electrical connection between the first contact device and the second contact device, an electrically conductive actuating element which is assigned to the closing element, a first switch circuit which contains the first contact device, the second contact device and the closing element, a second switch circuit which contains the actuating element, the closing element and the second contact device, characterised in that the housing in which the switch unit is integrated consists at least on the inside of an electrically conductive polymer which has an electrically conductive connection with the actuating element via contacting and which furthermore may be connected to an external evaluation unit via a further contact.
A valve, in particular a proportional pressure control valve for pneumatic applications, comprising a valve body (15; 25) which, in order to control a flow of medium between at least a first (7; P) and a second medium terminal (9; A), can be moved by means of an operating device along an axis of displacement between a closed position, in which it blocks the passage of medium by abutting against a seat body, and control positions in which it is raised from the valve seat body, the seat body having a sealing surface which lies in a plane perpendicular to the axis of displacement and surrounds the opening of a medium channel in a closed line, which channel extends from the first medium terminal (7; P) towards the valve body (15; 22), and that the valve body (15; 22) has a sealing device (19; 46) preferably in the form of a plate and the closing surface of which interacts with the sealing surface, characterised in that the seat body has at least one supporting surface which lies in a plane parallel to the sealing surface and surrounds the sealing surface a distance away from the latter, and that at least one medium passage (59, 61) is formed on the supporting surface, which passage forms a connection between the second medium terminal (9; A) and the space located between the supporting surface and the sealing surface, and that the sealing surface and the supporting surface lie in a common plane perpendicular to the axis of displacement.
A system for placing a stimulation element, the system comprising: a neuromuscular response evaluation module including: a stimulation engine configured to apply an electrical stimulation signal to at least one nerve within a patient head-and-neck portion via a stimulation element; a muscle response module configured to determine a response of at least one muscle in the patient head-and-neck portion to application of the stimulation signal; and a graphical user interface including: an image display module configured to display at least one internal image of the patient head-and-neck portion; a muscle identifier module configured to visually identify, superimposed on the at least one internal image, which muscles in the head-and-neck portion were activated for each respective application of the stimulation signal to at least one nerve in the head-and-neck portion. a neuromuscular response evaluation module including: a stimulation engine configured to apply an electrical stimulation signal to at least one nerve within a patient head-and-neck portion via a stimulation element; a muscle response module configured to determine a response of at least one muscle in the patient head-and-neck portion to application of the stimulation signal; and a stimulation engine configured to apply an electrical stimulation signal to at least one nerve within a patient head-and-neck portion via a stimulation element; a muscle response module configured to determine a response of at least one muscle in the patient head-and-neck portion to application of the stimulation signal; and a graphical user interface including: an image display module configured to display at least one internal image of the patient head-and-neck portion; a muscle identifier module configured to visually identify, superimposed on the at least one internal image, which muscles in the head-and-neck portion were activated for each respective application of the stimulation signal to at least one nerve in the head-and-neck portion. an image display module configured to display at least one internal image of the patient head-and-neck portion; a muscle identifier module configured to visually identify, superimposed on the at least one internal image, which muscles in the head-and-neck portion were activated for each respective application of the stimulation signal to at least one nerve in the head-and-neck portion.
A nonaqueous electrolytic solution having an electrolyte salt dissolved in a nonaqueous solvent, the electrolyte salt comprising at least one first lithium salt selected from LiPF 6, LiBF 4, LiN(SO 2 F) 2, LiN(SO 2 CF 3) 2, and LiN(SO 2 C 2 F 5) 2, and a second lithium salt being composed of one or more lithium salts (IIa) having an oxalate structure, and one or more lithium salts (IIb) selected from a lithium salt having a phosphate structure and from a lithium salt having an S=O group, the electrolyte salt containing four or more kinds of lithium salts in total.
Light-emitting signalling device (6; 106) intended to be placed behind a glazing unit (4; 104) of a motor-vehicle rear window, the device comprising: - a location for at least one light source (12; 112) able to emit light rays; - an optical system (14, 16; 114, 116) able to deviate the light rays emitted by the one or more light sources (12; 112) so as to make them converge to a point or a segment (18; 118) and to form a light beam that is divergent along an optical axis of the device; - a mask (22, 24; 122, 124) extending from the point or segment of convergence (18, 118), in the direction of the light beam; - a transparent or translucent element (20; 120) extending transversely to the optical axis (26; 126) level with the point or segment of convergence (18; 118), allowing unfocused light rays to be scattered and, thus, the light beam produced to be completed, characterized in that the mask comprises at least one, and preferably a plurality of opaque walls (22, 24; 122, 124) extending in the direction of the light beam from the point or segment of convergence (18; 118), so as to position the point or segment of convergence (18; 118) at a distance from the glazing unit (4; 104) and in that the transparent or translucent element (20; 120) comprises a grained front face (20 2; 120 3, 120 4), said graining preferably having an R a roughness greater than or equal to 1 μm. - a location for at least one light source (12; 112) able to emit light rays; - an optical system (14, 16; 114, 116) able to deviate the light rays emitted by the one or more light sources (12; 112) so as to make them converge to a point or a segment (18; 118) and to form a light beam that is divergent along an optical axis of the device; - a mask (22, 24; 122, 124) extending from the point or segment of convergence (18, 118), in the direction of the light beam; - a transparent or translucent element (20; 120) extending transversely to the optical axis (26; 126) level with the point or segment of convergence (18; 118), allowing unfocused light rays to be scattered and, thus, the light beam produced to be completed,
A method of determining the status of a traffic signal to assist a robotic vehicle or a driver (191, 192), the method comprising: repeatedly determining a current location of a vehicle or a client device (170, 171, 172) that is vehicle-mounted or is within a vehicle; predicting a position of a nearby traffic signal based on a comparison of the current location of the client device or the vehicle to a map of three- dimensional locations of traffic signals; collecting images of the predicted position, the images being captured by one or more cameras associated with the vehicle or by a camera of the client device; for each collected image, projecting the predicted position into the frame of the image as a bounding box, wherein the geometry of the bounding box is determined based on a geometry of the traffic signal as described by the map of three-dimensional locations of traffic signals; identifying red, yellow, and green objects within the bounding box; detecting, from the collected image, the status of the traffic signal based on the color of the identified object; and using the predicted position of the traffic signal and the status of the traffic signal to assist the robotic vehicle or the driver. repeatedly determining a current location of a vehicle or a client device (170, 171, 172) that is vehicle-mounted or is within a vehicle; predicting a position of a nearby traffic signal based on a comparison of the current location of the client device or the vehicle to a map of three- dimensional locations of traffic signals; collecting images of the predicted position, the images being captured by one or more cameras associated with the vehicle or by a camera of the client device; for each collected image, projecting the predicted position into the frame of the image as a bounding box, wherein the geometry of the bounding box is determined based on a geometry of the traffic signal as described by the map of three-dimensional locations of traffic signals; identifying red, yellow, and green objects within the bounding box; detecting, from the collected image, the status of the traffic signal based on the color of the identified object; and using the predicted position of the traffic signal and the status of the traffic signal to assist the robotic vehicle or the driver.