mhurhangee/ep-ind-claims huggingface dataset:
An information indicating method comprising: receiving, by a terminal, service data adaptation protocol, SDAP, data, and determining, based on reflective quality of service, QoS, indication, RQI, information in a header of the SDAP data, whether to update a first mapping relationship between an Internet Protocol, IP, flow and a QoS flow corresponding to a Non-Access Stratum, NAS, Reflective QoS function; wherein the determining, based on the RQI information in the header of the SDAP data, whether to update the first mapping relationship comprises: determining by the terminal, when the RQI information is valued 1, the first mapping relationship needs to be updated; and determining by the terminal, when the RQI information is valued 0, the first mapping relationship does not need to be updated, characterized in that the method further comprises: starting a timer when the RQI information is valued 1; determining, when the timer is in a running state, a second mapping relationship between a QoS flow and a data resource bearer, DRB, corresponding to an Access Stratum, AS, Reflective QoS function does not need to be updated; and determining, when the timer expires, the second mapping relationship needs to be updated. receiving, by a terminal, service data adaptation protocol, SDAP, data, and determining, based on reflective quality of service, QoS, indication, RQI, information in a header of the SDAP data, whether to update a first mapping relationship between an Internet Protocol, IP, flow and a QoS flow corresponding to a Non-Access Stratum, NAS, Reflective QoS function; wherein the determining, based on the RQI information in the header of the SDAP data, whether to update the first mapping relationship comprises: determining by the terminal, when the RQI information is valued 1, the first mapping relationship needs to be updated; and determining by the terminal, when the RQI information is valued 0, the first mapping relationship does not need to be updated, determining by the terminal, when the RQI information is valued 1, the first mapping relationship needs to be updated; and determining by the terminal, when the RQI information is valued 0, the first mapping relationship does not need to be updated, characterized in that the method further comprises: starting a timer when the RQI information is valued 1; determining, when the timer is in a running state, a second mapping relationship between a QoS flow and a data resource bearer, DRB, corresponding to an Access Stratum, AS, Reflective QoS function does not need to be updated; and determining, when the timer expires, the second mapping relationship needs to be updated. starting a timer when the RQI information is valued 1; determining, when the timer is in a running state, a second mapping relationship between a QoS flow and a data resource bearer, DRB, corresponding to an Access Stratum, AS, Reflective QoS function does not need to be updated; and determining, when the timer expires, the second mapping relationship needs to be updated.
An infrared forehead thermometer including an infrared sensor adapted for determining a body temperature based on a measurement of one predetermined spot on a human or animal body, wherein the infrared forehead thermometer comprises: a recognition means for recognizing if the infrared forehead thermometer is positioned on said one predetermined spot, the recognition means being a capacitive sensor; a housing; and a head resting on the housing, the head comprising a probe head, a thermopile sensor holder, and a rubber pad; wherein the probe head which is of an isosceles trapezoid like shape surrounds the thermopile sensor holder; wherein the capacitive sensor is a coil between the probe head and the rubber pad; wherein said one predetermined spot is a forehead; wherein the infrared forehead thermometer automatically begins a temperature measurement if the capacitive sensor recognizes that the infrared forehead thermometer is properly positioned on the forehead; and wherein the infrared forehead thermometer stays in a stand by mode if the capacitive sensor recognizes that the infrared forehead thermometer is not properly positioned on the forehead. a recognition means for recognizing if the infrared forehead thermometer is positioned on said one predetermined spot, the recognition means being a capacitive sensor; a housing; and a head resting on the housing, the head comprising a probe head, a thermopile sensor holder, and a rubber pad; wherein the probe head which is of an isosceles trapezoid like shape surrounds the thermopile sensor holder; wherein the capacitive sensor is a coil between the probe head and the rubber pad; wherein said one predetermined spot is a forehead; wherein the infrared forehead thermometer automatically begins a temperature measurement if the capacitive sensor recognizes that the infrared forehead thermometer is properly positioned on the forehead; and wherein the infrared forehead thermometer stays in a stand by mode if the capacitive sensor recognizes that the infrared forehead thermometer is not properly positioned on the forehead.
A reclosable folding box (42, 43) having a safety and tamper-evident closure comprising a pull tab, the side wall surfaces (2-6, 64, 65) of which are formed from a one-piece blank (1a, 1b) and glued together in such a way that the folding box (42, 43) cannot be opened without destroying a glued joint and/or at least one disconnectable tear line area (16a, 16b, 17a, 17b), wherein the pull tab is non-glued and reaches a folding box edge formed between a second side wall surface and an adjoining third side wall surface with an edge-side boundary line and is printed on a folding box outer side with a first linear pattern, in particular a guilloche pattern, extending at least in part with at least one pattern line beyond the tear line area(s) (16a, 16b, 17a, 17b), which first linear pattern adjoins an area (21, 22) visible from the folding box outer side and printed in contrast color with respect to the first linear pattern, characterized in that the area printed in contrast color (21, 22), in the region of the boundary line at least on a surface region of the second side wall surface facing the outside of the folding box and covered by the unglued pull tab and on the outside of the third side wall surface, which is hinged to the second side wall surface and adjoins the pull tab, is formed to merge into the latter and is printed in contrast color with respect to the outside color of the folding box blank (1a, 1b), wherein the articulation of the second and third side wall surfaces (3, 4) is formed as a folding line forming a lateral edge of the erected folding box (42, 43), which in the contrast color printed area (21, 22) splits into two folding line courses (7'd, 7"d), thereby forming an enclosed pointed oval, and re-unites to the one folding line, and thereby forms a side edge area formed in a trough-like manner in the area of the pull tab, and wherein the area (21, 22) printed in contrast color extends at least partially over the tear line area(s) (16a, 17a).
A conveyor for positioning a meat product to be cut, having a track 12 mounted to a frame 14; a continuous chain 18 slidably mounted to the track 12; a plurality of flights 30 longitudinally connected to the chain 18; a guide bar 40 connected to the frame 14 wherein as one flight 30 rotates about a loading end 28 of the conveyor 10, characterised in that the one flight 30 engages a product 36 and advances the product 36 forward of a shackle 59 on a transport conveyor 60 while the product 36 is attached to the shackle 59.
A temperature measuring device comprising: a thermo-well tube;; and a cable or wire type temperature measuring means which is installed in a thermo- well tube, wherein temperature measuring means has temperature detecting sensors (2, 4) disposed at an intermediate portion thereof, and the temperature detecting sensors can be moved axially in the thermo-well tube by applying tension to both ends of the cable or wire type temperature measuring means, wherein the temperature measuring device further comprises pulleys (7,9) installed at outside of openings formed at both ends of the thermo-well tube, respectively, and the tension is applied to both ends of the cable or wire type temperature measuring means by the pulleys.
A vane for a rotor of a rotary positive displacement vane pump, said pump having at least one pumping chamber with an internal wall, and said vane (120; 220; 320; 420; 520) having a vane body (122; 222; 322; 422; 522) and two tips (124; 224; 324; 424; 524) and being configured so as to be displaceable in radial direction and to reverse its motion inside said at least one pumping chamber, wherein at least one inertial damper (100; 200; 300', 300"; 400', 400"; 500', 500") is mounted in said vane body, characterised in that said damper includes at least one inertial dampening member (102; 202a, 202b; 302', 302"; 402a', 402b', 402a", 402b"; 502', 502") radially movable within a respective seat (101; 201; 301; 401; 501), and at least one resilient member (103a, 103b; 203; 303a', 303b', 303a", 303b"; 403', 403"; 503', 503") opposing the radial movement of said at least one dampening member (102; 202a, 202b; 302', 302"; 402a', 402b', 402a", 402b"; 502', 502") so as to ensure the contact between each tip (24; 124; 224; 324; 424; 524) and the internal wall of the pumping chamber.
A catheter comprising: an elongated catheter body; a distal electrode assembly, the assembly comprising a plurality of spines, each spine having at least one electrode, a proximal spine portion and a distal spine portion; and an intermediate deflection section between the catheter body and the distal electrode assembly, the intermediate deflection section being responsive to a control handle for selectively deflecting one side or the other side of the distal electrode assembly toward the catheter, wherein the catheter defines a longitudinal axis, wherein the distal electrode assembly is configured to assume a deployed expanded configuration and a collapsed configuration; wherein when in the deployed expanded configuration, the plurality of spines extend in a common plane and the proximal spine portions are configured to extend at an angle from the longitudinal axis and the distal spine portions are configured to extend generally parallel to the longitudinal axis, wherein the proximal spine portions converge at their proximal ends near the distal end of the intermediate deflection section, with each proximal spine portion spreading outwardly from the longitudinal axis of the catheter, wherein inner proximal spine portions extend at a lesser angle and outer proximal spine portions extend at a greater angle from the longitudinal axis, so that the distal portion of each spine is spaced apart from each other. an elongated catheter body; a distal electrode assembly, the assembly comprising a plurality of spines, each spine having at least one electrode, a proximal spine portion and a distal spine portion; and an intermediate deflection section between the catheter body and the distal electrode assembly, the intermediate deflection section being responsive to a control handle for selectively deflecting one side or the other side of the distal electrode assembly toward the catheter, wherein the catheter defines a longitudinal axis, wherein the distal electrode assembly is configured to assume a deployed expanded configuration and a collapsed configuration; wherein when in the deployed expanded configuration, the plurality of spines extend in a common plane and the proximal spine portions are configured to extend at an angle from the longitudinal axis and the distal spine portions are configured to extend generally parallel to the longitudinal axis, wherein the proximal spine portions converge at their proximal ends near the distal end of the intermediate deflection section, with each proximal spine portion spreading outwardly from the longitudinal axis of the catheter, wherein inner proximal spine portions extend at a lesser angle and outer proximal spine portions extend at a greater angle from the longitudinal axis, so that the distal portion of each spine is spaced apart from each other.
Gripping device for gripping objects, comprising at least one force introduction interface to which a drive for generating a gripping force can be or is coupled, and further comprising an articulation transmission mechanism made up of at least one support part and a plurality of transmission links (18a-f) pin-connected to one another by means of joints (17a-g) for the transmission of the gripping force to at least one gripping element (19a, 19b) acting on the object to be gripped in the gripping process, characterised in that the articulation transmission mechanism is designed in the manner of a six-link (18a-f) kinematic Watt or Stephenson chain, the chain comprising two rigid triangles and three of the joints (17a-c) being located on the support part while being stationary relative to one another.
A coating solution comprising: an organic solvent; at least 10 mole percent relative to total metal content of a first organometallic composition represented by the formula R z SnO (2-(z/2)-(x/2)) x where 0 < z ≤ 2 and 0 < (z + x) ≤ 4, by the formula R n SnX 4-n where n = 1 or 2, or a mixture thereof, wherein R is a hydrocarbyl group with 1-31 carbon atoms and X is a ligand with a hydrolysable Sn-X bond or combination of ligands with a hydrolysable Sn-X bond; and, at least 10 mole percent relative to total metal content of a second organometallic composition represented by the formula R' y SnX' 4-y where y = 1 or 2, wherein R' is a hydrocarbyl group that is different from R, and X' is ligand with a hydrolysable Sn-X' bond or combination thereof that is the same or different from X. an organic solvent; at least 10 mole percent relative to total metal content of a first organometallic composition represented by the formula R z SnO (2-(z/2)-(x/2)) x where 0 < z ≤ 2 and 0 < (z + x) ≤ 4, by the formula R n SnX 4-n where n = 1 or 2, or a mixture thereof, wherein R is a hydrocarbyl group with 1-31 carbon atoms and X is a ligand with a hydrolysable Sn-X bond or combination of ligands with a hydrolysable Sn-X bond; and, at least 10 mole percent relative to total metal content of a second organometallic composition represented by the formula R' y SnX' 4-y where y = 1 or 2, wherein R' is a hydrocarbyl group that is different from R, and X' is ligand with a hydrolysable Sn-X' bond or combination thereof that is the same or different from X.
A Ni-based alloy member including a non-repaired region made of a Ni-based alloy base and a region repaired by welding, which is formed on the non-repaired region and made of a buildup-welded layer, the buildup-welded layer being made of a Ni-based alloy containing, by weight, 15% or less of Co, 18 - 22% of Cr, 0.8 - 2.0% of Al, 5.0% or less of Ta, 0.5% or less of Mo, 0.5% or less of Ti, 13 - 18% of W, 0.05 - 0.13% of C, 0.06% or less of Zr, 0.015% or less of B, 0.4 - 1.2% of Mn, and 0.1 - 0.3% of Si, and the balance being Ni, and the buildup-welded layer being formed in an enclosed vessel containing a non-oxidizing atmosphere.
A positive airway pressure device for delivering pressurized therapy gas, comprising: a blower (10, 110, 242) to pressurize gas in the range of about 4-30 cmH 2 0; each said blower including a motor having a shaft (48, 284) and an impeller (62, 72, 62.1, 244, 248) the impeller comprising: a top shroud (92, 92,1); a planar bottom shroud (90, 90.1), a plurality of vanes (88, 88.1) extending from the top shroud to the bottom shroud, each said vane including a top edge at a radially inner portion of the vane in contact with the top shroud and a bottom edge at a radially outer portion of the vane in contact with the bottom shroud, such that a radially inner portion of the vane at the bottom edge of each vane is not in contact with the bottom shroud and a radially outer portion of the vane at the top edge of each vane is not in contact with the top shroud. a blower (10, 110, 242) to pressurize gas in the range of about 4-30 cmH 2 0; each said blower including a motor having a shaft (48, 284) and an impeller (62, 72, 62.1, 244, 248) the impeller comprising: a top shroud (92, 92,1); a planar bottom shroud (90, 90.1), a plurality of vanes (88, 88.1) extending from the top shroud to the bottom shroud, each said vane including a top edge at a radially inner portion of the vane in contact with the top shroud and a bottom edge at a radially outer portion of the vane in contact with the bottom shroud, such that a radially inner portion of the vane at the bottom edge of each vane is not in contact with the bottom shroud and a radially outer portion of the vane at the top edge of each vane is not in contact with the top shroud. a top shroud (92, 92,1); a planar bottom shroud (90, 90.1), a plurality of vanes (88, 88.1) extending from the top shroud to the bottom shroud, each said vane including a top edge at a radially inner portion of the vane in contact with the top shroud and a bottom edge at a radially outer portion of the vane in contact with the bottom shroud, such that a radially inner portion of the vane at the bottom edge of each vane is not in contact with the bottom shroud and a radially outer portion of the vane at the top edge of each vane is not in contact with the top shroud.
A wheel assembly for use on a toy car, comprising: a roller including a shaft and two wheel portions (203A, 203B) provided at opposite ends of said shaft, wherein the periphery of each wheel portion is partially covered by a sticky surface, characterized in that the periphery of each wheel portion includes a blank portion without a tendency to stick. a roller including a shaft and two wheel portions (203A, 203B) provided at opposite ends of said shaft, wherein the periphery of each wheel portion is partially covered by a sticky surface, characterized in that the periphery of each wheel portion includes a blank portion without a tendency to stick.
A method for deploying a task in a computer cluster forming a supercomputer that comprises: - computers (102, 104), each having at least one network interface forming a node (1...16); and - a network interconnecting the nodes (1...16), comprising: • switches (1.1...4.8), each having network interfaces; and • links, each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), the method comprising: - allocating nodes (1...16) to the task, the method being characterized in that it further comprises: - determining, in the network, a subnetwork interconnecting the allocated nodes, said subnetwork satisfying one or more predefined determination criteria comprising a first criterion according to which the subnetwork uses only links that are not allocated to any other already deployed task or that are allocated to fewer than N other already deployed tasks, where N is a predefined number of one or more; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork. - computers (102, 104), each having at least one network interface forming a node (1...16); and - a network interconnecting the nodes (1...16), comprising: • switches (1.1...4.8), each having network interfaces; and • links, each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), • switches (1.1...4.8), each having network interfaces; and • links, each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), the method comprising: - allocating nodes (1...16) to the task, - allocating nodes (1...16) to the task, the method being characterized in that it further comprises: - determining, in the network, a subnetwork interconnecting the allocated nodes, said subnetwork satisfying one or more predefined determination criteria comprising a first criterion according to which the subnetwork uses only links that are not allocated to any other already deployed task or that are allocated to fewer than N other already deployed tasks, where N is a predefined number of one or more; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork. - determining, in the network, a subnetwork interconnecting the allocated nodes, said subnetwork satisfying one or more predefined determination criteria comprising a first criterion according to which the subnetwork uses only links that are not allocated to any other already deployed task or that are allocated to fewer than N other already deployed tasks, where N is a predefined number of one or more; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork.
A circuit device for preventing radiation emission in a portable terminal with two cameras, the device comprising: a first camera comprising a video calling camera; a second camera comprising a photographing camera; a processor for outputting a first control signal controlling an operation of the first camera and for outputting a second control signal controlling an operation of the second camera; and a 3-state buffer electrically connected in a pixel clock line between the first camera and the processor for connecting or disconnecting between the first camera and the processor depending on the first control signal, wherein the first camera and the second camera share the pixel clock line, and wherein the 3-state buffer is configured to disconnect between the first camera and the processor during the non-operation of the first camera to prevent radiation emission by a harmonic frequency of a pixel clock outputted during the operation of the second camera. a first camera comprising a video calling camera; a second camera comprising a photographing camera; a processor for outputting a first control signal controlling an operation of the first camera and for outputting a second control signal controlling an operation of the second camera; and a 3-state buffer electrically connected in a pixel clock line between the first camera and the processor for connecting or disconnecting between the first camera and the processor depending on the first control signal, wherein the first camera and the second camera share the pixel clock line, and wherein the 3-state buffer is configured to disconnect between the first camera and the processor during the non-operation of the first camera to prevent radiation emission by a harmonic frequency of a pixel clock outputted during the operation of the second camera.
A bail arm assembly, comprising: a shaft to couple to a device; and a bail arm to control output media, the bail arm being coupled to the shaft to rotate about a central axis of the shaft, wherein the bail arm is configured to oscillate in a direction perpendicular to the central axis, characterized by the bail arm including: a tapered U section to provide a downward force at a first contact portion and a second contact portion; and an angled surface extending from the first contact portion and to guide insertion of a media onto an output tray in a direction perpendicular to a media output path. a shaft to couple to a device; and a bail arm to control output media, the bail arm being coupled to the shaft to rotate about a central axis of the shaft, wherein the bail arm is configured to oscillate in a direction perpendicular to the central axis, a tapered U section to provide a downward force at a first contact portion and a second contact portion; and an angled surface extending from the first contact portion and to guide insertion of a media onto an output tray in a direction perpendicular to a media output path.