mhurhangee/patent-ind-claim-en huggingface dataset:
A ball screw device comprising: a screw shaft that has a first thread groove on an outer peripheral surface; a nut that has a second thread groove provided on an inner peripheral surface, a notch provided on an end face, and a return hole provided in a bottom surface of the notch orthogonal to an axial direction of the screw shaft and passing through in the axial direction; a plurality of balls that roll between the first thread groove and the second thread groove ; and an end deflector that fits into the notch , wherein the nut comprises a curved surface portion at a position of a lateral surface of the notch between the second thread groove and the return hole , the ball screw device characterized in that : the curved surface portion includes, in a first section obtained by cutting the nut with a plane orthogonal to the axial direction and passing through the second thread groove and the notch , a portion that draws an arc centered at a point positioned outside the second thread groove in a radial direction around a rotation axis of the nut . a screw shaft that has a first thread groove on an outer peripheral surface; a nut that has a second thread groove provided on an inner peripheral surface, a notch provided on an end face, and a return hole provided in a bottom surface of the notch orthogonal to an axial direction of the screw shaft and passing through in the axial direction; a plurality of balls that roll between the first thread groove and the second thread groove ; and an end deflector that fits into the notch , wherein the nut comprises a curved surface portion at a position of a lateral surface of the notch between the second thread groove and the return hole , the ball screw device characterized in that : the curved surface portion includes, in a first section obtained by cutting the nut with a plane orthogonal to the axial direction and passing through the second thread groove and the notch , a portion that draws an arc centered at a point positioned outside the second thread groove in a radial direction around a rotation axis of the nut .
A fabric treating apparatus comprising: a cabinet defining a treating chamber in which clothes is accommodated; characterized by a first conveyer (200-1) and a second conveyer (200-2) for conveying the clothes in one direction; a first fixing member to which the first conveyer (200-1) is fixed; a second fixing member to which the second conveyer (200-2) is fixed; a guide block to which the first fixing member and the second fixing member are rotatably coupled; a guide rail in which the guide block is slid, and which is coupled to the cabinet ; a first stay link having one end rotatably coupled to the first fixing member and the other end rotatably coupled to the cabinet ; and a second stay link having one end rotatably coupled to the second fixing member and the other end rotatably coupled to the cabinet . a cabinet defining a treating chamber in which clothes is accommodated; characterized by a first conveyer (200-1) and a second conveyer (200-2) for conveying the clothes in one direction; a first fixing member to which the first conveyer (200-1) is fixed; a second fixing member to which the second conveyer (200-2) is fixed; a guide block to which the first fixing member and the second fixing member are rotatably coupled; a guide rail in which the guide block is slid, and which is coupled to the cabinet ; a first stay link having one end rotatably coupled to the first fixing member and the other end rotatably coupled to the cabinet ; and a second stay link having one end rotatably coupled to the second fixing member and the other end rotatably coupled to the cabinet .
Heat exchanger manifold, in particular a charge air cooler of an internal combustion engine, comprising a bundle for the exchange of heat between a first and a second fluid, said manifold comprising a connection flange for the passage of the first fluid and a casing for the circulation of said first fluid between said flange and said bundle for the exchange of heat , said casing comprising an assembly formed by a raised edge of a wall , being the so-called entry wall, of said casing , supporting said flange , and at least one other wall of said casing , characterized in that said flange comprises a reinforcing rib resting on said assembly on a part of the casing exhibiting a thickness of reinforced material joining two walls of said casing.
A support device for a furniture flap , wherein the support device can be hingedly connected to a furniture carcass and a furniture flap , wherein the support device has a first support arm and a second support arm and the first and second support arms overlap without a gap in every position of the support device laterally with respect to the direction of movement of the support device , characterised in that the first support arm and the second support arm are profiled in cross-section and nested in each other.
An information processing method in a communications system comprising: determining a redundancy version transmission sequence, wherein the determined redundancy version transmission sequence is one of a plurality of redundancy version transmission sequences, wherein the plurality of redundancy version transmission sequences comprises: , , or ; determining a transmission number; determining a redundancy version based on the determined redundancy version transmission sequence and the transmission number to obtain an output bit sequence from a starting position in a buffer sequence, wherein the buffer sequence comprises N CB bits from a bit sequence D, wherein the bit sequence D is a low density parity check, LDPC, encoded sequence; and sending the output bit sequence; wherein a starting position number rvidx of the output bit sequence loops in a sequence of 0 and 3 in the buffer sequence; wherein the first transmitted redundancy version is redundancy version 0, and a starting position of the redundancy version 0 in the buffer sequence is 0; and wherein in a case that the transmitted redundancy version is redundancy version 3, a starting position of the redundancy version 3 in the buffer sequence is 56z, wherein N CB = 66z, z is a lifting size; or a starting position of the redundancy version 3 in the buffer sequence is 43z, wherein N CB =50z, z is a lifting size. determining a redundancy version transmission sequence, wherein the determined redundancy version transmission sequence is one of a plurality of redundancy version transmission sequences, wherein the plurality of redundancy version transmission sequences comprises: , , or ; determining a transmission number; determining a redundancy version based on the determined redundancy version transmission sequence and the transmission number to obtain an output bit sequence from a starting position in a buffer sequence, wherein the buffer sequence comprises N CB bits from a bit sequence D, wherein the bit sequence D is a low density parity check, LDPC, encoded sequence; and sending the output bit sequence; determining a redundancy version based on the determined redundancy version transmission sequence and the transmission number to obtain an output bit sequence from a starting position in a buffer sequence, wherein the buffer sequence comprises N CB bits from a bit sequence D, wherein the bit sequence D is a low density parity check, LDPC, encoded sequence; and sending the output bit sequence; wherein the first transmitted redundancy version is redundancy version 0, and a starting position of the redundancy version 0 in the buffer sequence is 0; and wherein in a case that the transmitted redundancy version is redundancy version 3, a starting position of the redundancy version 3 in the buffer sequence is 56z, wherein N CB = 66z, z is a lifting size; or a starting position of the redundancy version 3 in the buffer sequence is 43z, wherein N CB =50z, z is a lifting size.
A meter case used with a utility meter comprising: a meter shell comprising a plurality of snap fit joints assembled on the meter case; a module cover configured to be mounted on the meter shell by engaging the plurality of snap fit joints, the module cover having a wire housing formed along an inner periphery of the module cover; a wire having a first end and a second end, mounted within the wire housing; a metal shield placed behind the meter shell, the metal shield being electrically coupled to a first connector ; a terminal electrically connected to the metal shield is configured to discharge current to ground; an electrical contact portion , electrically coupled to the second end of the wire, the electrical contact portion is configured to engage the first connector to establish an electrical connection to the metal shield for the discharge to ground of electrostatic discharge current sensed by wire; and an electrical contact insulation chamber having a recess is formed within the module cover, the recess housing the electrical contact portion . a meter shell comprising a plurality of snap fit joints assembled on the meter case; a module cover configured to be mounted on the meter shell by engaging the plurality of snap fit joints, the module cover having a wire housing formed along an inner periphery of the module cover; a wire having a first end and a second end, mounted within the wire housing; a metal shield placed behind the meter shell, the metal shield being electrically coupled to a first connector ; a terminal electrically connected to the metal shield is configured to discharge current to ground; an electrical contact portion , electrically coupled to the second end of the wire, the electrical contact portion is configured to engage the first connector to establish an electrical connection to the metal shield for the discharge to ground of electrostatic discharge current sensed by wire; and an electrical contact insulation chamber having a recess is formed within the module cover, the recess housing the electrical contact portion .
A detachment system for delivering an implantable medical device to a target location of a body vessel, the system comprising: a tubular body comprising a lumen extending therethrough and a compressed distal tube ; a loop wire comprising a first end attachment and a second end attachment affixed to the tubular body and further comprising a loop opening positioned proximate a distal end of the compressed distal tube; and a pull wire extending through the lumen and through the loop opening, characterised in that the loop wire comprises a twist such that that the loop wire is twisted at least one time around the pull wire to increase friction between the loop wire and the pull wire. a tubular body comprising a lumen extending therethrough and a compressed distal tube ; a loop wire comprising a first end attachment and a second end attachment affixed to the tubular body and further comprising a loop opening positioned proximate a distal end of the compressed distal tube; and a pull wire extending through the lumen and through the loop opening, characterised in that the loop wire comprises a twist such that that the loop wire is twisted at least one time around the pull wire to increase friction between the loop wire and the pull wire.
Detection arrangement for monitoring focusing of a processing laser beam bundled by means of focusing optics on a surface , wherein the focusing optics comprise at least one focusing lens through which the processing laser beam exits the focusing optics along an optical axis of the focusing lens and wherein a main plane of the focusing lens is oriented parallel to an illumination section of the surface in which the processing laser beam strikes the surface in an impact region , wherein the processing laser beam is bundled at a focal point of the focusing optics , and wherein the detection arrangement comprises at least one sensor element and at least one mirror , characterised in that the mirror is a flat mirror , wherein the flat mirror is arranged spaced at a distance from the processing laser beam in use with the focusing optics such that a scattered light beam reflected through the focusing lens is deflected by means of the flat mirror into a detection plane oriented at a detection angle to the processing laser beam and is directed onto the sensor element arranged in this detection plane.
Sensor for the detection of soot particles in an exhaust gas stream of combustion engines, comprising a substrate , a first electrode layer and, arranged between the substrate and the first electrode layer , a second electrode layer , wherein between the first electrode layer and the second electrode layer at least one insulation layer is provided and in the first electrode layer as well as in the first insulation layer at least one opening (15; 16) is formed, characterised in that - between the first insulation layer and the first electrode layer there is at least one third electrode layer , and - between the third electrode layer and the first electrode layer there is at least one second insulation layer , wherein in both the at least second insulation layer and in the at least third electrode layer there is at least one opening (70; 71), wherein the opening of the first electrode layer , the opening of the at least second insulation layer , the opening of the at least third electrode layer and the opening of the first insulation layer are at least in sections arranged above each other in such a way that at least one passage (17, 17', 17") through a section of the second electrode layer is formed wherein the base of the passage (17, 17, 17") is formed by a section of the second electrode layer . - between the first insulation layer and the first electrode layer there is at least one third electrode layer , and - between the third electrode layer and the first electrode layer there is at least one second insulation layer , wherein
A method of manufacturing a part for an aircraft seat, characterized in that it comprises: - a step of positioning a heating frame around a stacked structure comprising a foam core , a first cover (13.1) and a second cover (13.2) out of a thermoplastic material arranged on either side of the foam core , a first film of thermofusible glue (14.1) inserted between the first cover (13.1) and the foam core and a second film of thermofusible glue (14.2) inserted between the second cover (13.2) and the foam core , - a step of locally heating at least one edge (29.1, 29.2, 30.1, 30.2) of the stacked structure by means of a heating frame , - an step of externally heating the entire stacked structure , - a step of placing the stacked structure into a thermoforming mold equipped with cutting punches , - a step of thermoforming by closing the thermoforming mold and applying a vacuum inside the thermoforming mold , so as to simultaneously perform during the same step a process of shaping the first cover (13.1) and the second cover (13.2), a process of heat sealing at least one edge of the first cover (13.1) and at least one edge of the second cover (13.2) to one another, a process of bonding the first cover (13.1) and the second cover (13.2) to the foam core , and a process of cutting the stacked structure along its circumference by means of the cutting punches . - a step of positioning a heating frame around a stacked structure comprising a foam core , a first cover (13.1) and a second cover (13.2) out of a thermoplastic material arranged on either side of the foam core , a first film of thermofusible glue (14.1) inserted between the first cover (13.1) and the foam core and a second film of thermofusible glue (14.2) inserted between the second cover (13.2) and the foam core , - a step of locally heating at least one edge (29.1, 29.2, 30.1, 30.2) of the stacked structure by means of a heating frame , - an step of externally heating the entire stacked structure , - a step of placing the stacked structure into a thermoforming mold equipped with cutting punches , - a step of thermoforming by closing the thermoforming mold and applying a vacuum inside the thermoforming mold , so as to simultaneously perform during the same step a process of shaping the first cover (13.1) and the second cover (13.2), a process of heat sealing at least one edge of the first cover (13.1) and at least one edge of the second cover (13.2) to one another, a process of bonding the first cover (13.1) and the second cover (13.2) to the foam core , and a process of cutting the stacked structure along its circumference by means of the cutting punches .
A graphite electrode comprising; an electrode body formed of graphite having oppositely disposed first and second ends; and a threaded connector disposed at at least one end; wherein the electrode further includes a tag attached to the body , wherein the tag creates a non-line-of-sight signal representing an electrode identifier, wherein the threaded connector is at least one of a pin and a socket, characterized in that the tag is attached to at least one of the pin and the socket. an electrode body formed of graphite having oppositely disposed first and second ends; and a threaded connector disposed at at least one end; wherein the electrode further includes a tag attached to the body , wherein the tag creates a non-line-of-sight signal representing an electrode identifier, wherein the threaded connector is at least one of a pin and a socket, characterized in that the tag is attached to at least one of the pin and the socket.
A gear pump assembly comprising: a gear pump housing ; an input shaft receivable within a shaft bore defined within the gear pump housing ; and a biasing member for exerting a load on the input shaft in an axial direction; characterised in that the gear pump assembly comprises a stop disposed within the shaft bore for limiting movement of the input shaft in a direction of the load exerted by the biasing member , wherein the input shaft comprises a splined end including the stop , and wherein the shaft bore includes a spline configuration corresponding to the splined end of the input shaft with an opening for the stop . a gear pump housing ; an input shaft receivable within a shaft bore defined within the gear pump housing ; and a biasing member for exerting a load on the input shaft in an axial direction; characterised in that the gear pump assembly comprises a stop disposed within the shaft bore for limiting movement of the input shaft in a direction of the load exerted by the biasing member , wherein the input shaft comprises a splined end including the stop , and wherein the shaft bore includes a spline configuration corresponding to the splined end of the input shaft with an opening for the stop .
A method of operation of a network node , the method comprising: receiving (step 100), from a User Equipment, UE, an Enhanced Scheduling Request, ESR, for conveying availability of data and additional scheduling information; determining (step 102) the additional scheduling information from the ESR, using a predefined mapping that maps time and/or frequency resources used for receiving the ESR to the additional scheduling information or using a predefined mapping that maps values of a plurality of bits of the received ESR to the additional scheduling information; making (step 104) scheduling allocations based on the additional scheduling information; detecting (step 200) a trigger condition, wherein detecting the trigger condition comprises determining that at least some network traffic fails to meet predefined requirements or determining that a network load does not meet a predefined threshold; and changing (step 202) the predefined mapping to a different mapping in response to detecting the trigger condition. receiving (step 100), from a User Equipment, UE, an Enhanced Scheduling Request, ESR, for conveying availability of data and additional scheduling information; determining (step 102) the additional scheduling information from the ESR, using a predefined mapping that maps time and/or frequency resources used for receiving the ESR to the additional scheduling information or using a predefined mapping that maps values of a plurality of bits of the received ESR to the additional scheduling information; making (step 104) scheduling allocations based on the additional scheduling information; detecting (step 200) a trigger condition, wherein detecting the trigger condition comprises determining that at least some network traffic fails to meet predefined requirements or determining that a network load does not meet a predefined threshold; and
A dispensing nozzle assembly for mixing a first fluid and a second fluid, comprising: a target assembly ; the target assembly comprising a plurality of twisted fins ; and an injector ring assembly surrounding the target assembly in whole or in part; the injector ring assembly comprising a plurality of first tubes directed towards the target assembly for the first fluid; the plurality of first tubes comprising one or more threads therein; and the injector ring assembly comprising a plurality of second tubes directed towards the target assembly for the second fluid such that the first fluid and the second fluid mix along the twisted fins of the target assembly. a target assembly ; the target assembly comprising a plurality of twisted fins ; and an injector ring assembly surrounding the target assembly in whole or in part; the injector ring assembly comprising a plurality of first tubes directed towards the target assembly for the first fluid; the plurality of first tubes comprising one or more threads therein; and the injector ring assembly comprising a plurality of second tubes directed towards the target assembly for the second fluid such that the first fluid and the second fluid mix along the twisted fins of the target assembly.
A heat pump apparatus, comprising a compressor , a condenser , an evaporator , an electronic expansion valve and a four-/two-way valve , which are disposed in a refrigerant circuit, wherein the evaporator includes - a first conduit for refrigerant for absorbing heat through evaporation of the refrigerant, and - a second conduit with refrigerant for releasing heat through supercooling of the liquid refrigerant, wherein the evaporator further includes a plurality of fins and a defrost tray , and at least one of the fins includes an extension at one of its ends, which serves to receive the second conduit , wherein the second conduit is part of the refrigerant circuit, is configured as a defrost coil in which liquid refrigerant flows, and is used to heat the defrost tray . - a first conduit for refrigerant for absorbing heat through evaporation of the refrigerant, and - a second conduit with refrigerant for releasing heat through supercooling of the liquid refrigerant, wherein the evaporator further includes a plurality of fins and a defrost tray , and at least one of the fins includes an extension at one of its ends, which serves to receive the second conduit , wherein the second conduit is part of the refrigerant circuit, is configured as a defrost coil in which liquid refrigerant flows, and is used to heat the defrost tray . wherein the evaporator further includes a plurality of fins and a defrost tray , and at least one of the fins includes an extension at one of its ends, which serves to receive the second conduit , wherein the second conduit is part of the refrigerant circuit, is configured as a defrost coil in which liquid refrigerant flows, and is used to heat the defrost tray .