mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic cigarette (100; 200) comprising: a main body having a receiving cavity configured to receive a removable consumable comprising a substance to be vaporized, and an electrical circuitry , wherein the electrical circuitry comprises a heating circuit that is connectable to a heater configured to supply energy to the consumable such as to vaporize the substance, and wherein the electrical circuitry comprises an open control circuit comprising and connected to at least two electrical contact points (131-i, 132-i, 133-i, 134-i) arranged as a pair and configured to establish a closed electrical circuit when they are in contact with a conductive surface on the removable consumable , the conductive surface being separate from the heater , wherein the open control circuit comprises a plurality of closable branches, wherein each branch of the open control circuit is provided with a pair of electrical contact points (131-i, 132-i, 133-i, 134-i), wherein the electrical circuitry further comprises a controller , wherein the controller is configured to sense which pair of electrical contact points (131-i, 132-i, 133-i, 134-i) is connected by a conductive surface on the consumable , and wherein the controller is further configured to set an operating temperature to which the heater heats a portion of the consumable based on which pair of the electrical contact points (131-i, 132-i, 133-i, 134-i) is connected. a main body having a receiving cavity configured to receive a removable consumable comprising a substance to be vaporized, and an electrical circuitry , wherein the electrical circuitry comprises a heating circuit that is connectable to a heater configured to supply energy to the consumable such as to vaporize the substance, and wherein the electrical circuitry comprises an open control circuit comprising and connected to at least two electrical contact points (131-i, 132-i, 133-i, 134-i) arranged as a pair and configured to establish a closed electrical circuit when they are in contact with a conductive surface on the removable consumable , the conductive surface being separate from the heater , wherein the open control circuit comprises a plurality of closable branches, wherein each branch of the open control circuit is provided with a pair of electrical contact points (131-i, 132-i, 133-i, 134-i), wherein the electrical circuitry further comprises a controller , wherein the controller is configured to sense which pair of electrical contact points (131-i, 132-i, 133-i, 134-i) is connected by a conductive surface on the consumable , and wherein the controller is further configured to set an operating temperature to which the heater heats a portion of the consumable based on which pair of the electrical contact points (131-i, 132-i, 133-i, 134-i) is connected.
An electromagnetic valve comprising: a body having a lead-in port through which a refrigerant is led in, a lead-out port through which the refrigerant is led out, and a valve hole formed in a passage joining the lead-in port to the lead-out port ; a valve element that opens and closes a valve section by moving toward and away from the valve hole ; and a solenoid that supplies a drive force in a direction of axis line to the valve element , the solenoid being mounted on the body , the valve element having: a hole portion that is open to the valve hole ; characterized by an orifice functioning as an expander and having a cross section smaller than that of the hole portion , the orifice throttles and expands the refrigerant led in from the lead-in port so as to be led out to the hole portion , and being so formed as to always communicate between the lead-in port and the hole portion . a body having a lead-in port through which a refrigerant is led in, a lead-out port through which the refrigerant is led out, and a valve hole formed in a passage joining the lead-in port to the lead-out port ; a valve element that opens and closes a valve section by moving toward and away from the valve hole ; and a solenoid that supplies a drive force in a direction of axis line to the valve element , the solenoid being mounted on the body , the valve element having: a hole portion that is open to the valve hole ; characterized by an orifice functioning as an expander and having a cross section smaller than that of the hole portion , the orifice throttles and expands the refrigerant led in from the lead-in port so as to be led out to the hole portion , and being so formed as to always communicate between the lead-in port and the hole portion . a hole portion that is open to the valve hole ; characterized by an orifice functioning as an expander and having a cross section smaller than that of the hole portion , the orifice throttles and expands the refrigerant led in from the lead-in port so as to be led out to the hole portion , and being so formed as to always communicate between the lead-in port and the hole portion .
A polyaxial pivot housing for an external fixation system, comprising: a collet body having a threaded portion , a threaded bore hole configured to attach to an external fixation clamping assembly, and a spring mechanism housed within the threaded bore hole; a spherical member configured to be partially received by a cavity that is formed in the collet body, the spherical member having a threaded post that is configured to attach to a support member of an external fixation frame; and a threaded locking collar that is configured to orientationally lock the threaded post with respect to the external fixation frame by compressing the spherical member into the cavity as the threaded locking collar is mated with the threaded portion of the collet body. a collet body having a threaded portion , a threaded bore hole configured to attach to an external fixation clamping assembly, and a spring mechanism housed within the threaded bore hole; a spherical member configured to be partially received by a cavity that is formed in the collet body, the spherical member having a threaded post that is configured to attach to a support member of an external fixation frame; and a threaded locking collar that is configured to orientationally lock the threaded post with respect to the external fixation frame by compressing the spherical member into the cavity as the threaded locking collar is mated with the threaded portion of the collet body.
An electrical axle, comprising an electrical motor which is selectively connected to a differential via a reduction gear and a left drive shaft and a right drive shaft , the drive shafts being connected to two outputs of the differential , having a differential housing receiving rotational drive torque from the electrical motor and transmitting corresponding drive torque to the drive shafts , and a planetary gear set , said planetary gear set having one input and two outputs , wherein the electrical axle further comprises a gear shift mechanism configured to selectively connect the differential housing to one of said outputs , wherein the electrical motor is driving a sun gear of the planetary gear set , which sun gear forms the input of the planetary gear set , and wherein the outputs are a planet carrier and the sun gear of the planetary gear set characterized in that the planetary gear set is arranged coaxially with respect to the drive shafts .
A baffle element for a seal system of a turbomachine, the baffle element including: a radially inner portion defining a circular central opening which in use is positioned on a rotational axis of the turbomachine with a centre of the central opening on the axis and the perimeter of the central opening lying in a plane transverse to the axis; a radially outer portion encircling the radially inner portion ; and a gutter extending radially-outwardly from the radially outer portion, and having an oil redirection surface inclined to the plane of the circular central opening; the baffle element having a front surface which in use faces axially frontward into a bearing chamber, and a rear face which in use faces axially rearward towards an oil seal plate , the front surface comprising a recess portion which is axially rearward with respect to portions of the front surface which are respectively radially-inward and radially outward of the recess portion ; the recess portion defining a circumferentially-extending oil reception channel which intercepts the oil redirection surface , the channel having varying axial width at different circumferential positions, the axial width of the recess with respect to the circular central opening being greatest at a circumferential position about the axis which is circumferentially spaced from the gutter; whereby oil moving circumferentially in the channel encounters the oil redirection surface of the gutter and is deflected radially outwardly. a radially inner portion defining a circular central opening which in use is positioned on a rotational axis of the turbomachine with a centre of the central opening on the axis and the perimeter of the central opening lying in a plane transverse to the axis; a radially outer portion encircling the radially inner portion ; and a gutter extending radially-outwardly from the radially outer portion, and having an oil redirection surface inclined to the plane of the circular central opening; the baffle element having a front surface which in use faces axially frontward into a bearing chamber, and a rear face which in use faces axially rearward towards an oil seal plate , the front surface comprising a recess portion which is axially rearward with respect to portions of the front surface which are respectively radially-inward and radially outward of the recess portion ; the recess portion defining a circumferentially-extending oil reception channel which intercepts the oil redirection surface , the channel having varying axial width at different circumferential positions, the axial width of the recess with respect to the circular central opening being greatest at a circumferential position about the axis which is circumferentially spaced from the gutter; whereby oil moving circumferentially in the channel encounters the oil redirection surface of the gutter and is deflected radially outwardly.
A tool for removing an implanted catheter having a catheter body and a cuff, said tool comprising: a removal head configured to secure to a distal end of an elongated manipulator, said removal head including a tubular body having an axial opening along one side to be placed over the catheter body; wherein said tubular body has a blunt distal tip and first and second cutting edges extending obliquely in a proximal direction from the blunt distal tip; wherein the tubular body has third and fourth cutting edges along the axial opening, wherein the third and fourth cutting edges are oriented to cut tissue as the removal head is rotatable over the catheter body or cuff; the tool further comprising cutting elements along the third and fourth cutting edges, wherein the cutting elements are serrations . a removal head configured to secure to a distal end of an elongated manipulator, said removal head including a tubular body having an axial opening along one side to be placed over the catheter body; wherein said tubular body has a blunt distal tip and first and second cutting edges extending obliquely in a proximal direction from the blunt distal tip; wherein the tubular body has third and fourth cutting edges along the axial opening, wherein the third and fourth cutting edges are oriented to cut tissue as the removal head is rotatable over the catheter body or cuff; the tool further comprising cutting elements along the third and fourth cutting edges, wherein the cutting elements are serrations .
Bearing plate (5; 6; 7; 8; 9; 10) for an electric motor having a rotor and a stator, wherein the bearing plate (5; 6; 7; 8; 9; 10) has a receptacle for a bearing for supporting a shaft of the rotor, and wherein the bearing plate (5; 6; 7; 8; 9; 10) is arranged in a housing of the electric motor, wherein the bearing plate (5; 6; 7; 8; 9; 10) has a power conduction system (13, 23, 24, 60; 86, 87, 88; 92, 93, 94) which is configured to connect at least one winding of the stator to a power terminal and/or to a further winding of the stator, wherein the bearing plate (5; 6; 7; 8; 9; 10) has at least one opening in order to lead a connection of the winding through the bearing plate (5; 6; 7; 8; 9; 10), wherein the power conduction system (13, 23, 24, 60; 86, 87, 88; 92, 93, 94) is attached to the bearing plate (5; 6; 7; 8; 9; 10) by means of at least one securing element , characterized in that the securing element has at least one latching projection which is configured to attach the power conduction system (13, 23, 24, 60; 86, 87, 88; 92, 93, 94) to the securing element .
An apparatus for providing an around view, the apparatus comprising: first and second cameras configured to acquire first and second image information; and a processor , wherein the processor is configured: to generate an around view image including a first area including an overlapping area (331a, 331b, 333a, 333b; 345, 347) and a second area excluding the overlapping area (331a, 331b, 333a, 333b; 345, 347) based on first and second images (321, 325; 323, 327), wherein the overlapping area (331a, 331b, 333a, 333b; 345, 347) is disposed between first and second boundary lines (361; 341, 343; 311, 313, 315, 317) in the first and second images (321, 325; 323, 327), the first boundary (341, 343; 361) line is located in the first area , and the second boundary line adjoins the second area , characterized by the processor being further configured to generate the around view image in which the second area is changed to include the overlapping area (331a, 331b, 333a, 333b; 345, 347), when it is predicted that a first object passes through the second boundary line due to an approach of the first object within a predetermined distance. first and second cameras configured to acquire first and second image information; and a processor , wherein the processor is configured: to generate an around view image including a first area including an overlapping area (331a, 331b, 333a, 333b; 345, 347) and a second area excluding the overlapping area (331a, 331b, 333a, 333b; 345, 347) based on first and second images (321, 325; 323, 327), wherein the overlapping area (331a, 331b, 333a, 333b; 345, 347) is disposed between first and second boundary lines (361; 341, 343; 311, 313, 315, 317) in the first and second images (321, 325; 323, 327), the first boundary (341, 343; 361) line is located in the first area , and the second boundary line adjoins the second area , characterized by the processor being further configured to generate the around view image in which the second area is changed to include the overlapping area (331a, 331b, 333a, 333b; 345, 347), when it is predicted that a first object passes through the second boundary line due to an approach of the first object within a predetermined distance. to generate an around view image including a first area including an overlapping area (331a, 331b, 333a, 333b; 345, 347) and a second area excluding the overlapping area (331a, 331b, 333a, 333b; 345, 347) based on first and second images (321, 325; 323, 327), wherein the overlapping area (331a, 331b, 333a, 333b; 345, 347) is disposed between first and second boundary lines (361; 341, 343; 311, 313, 315, 317) in the first and second images (321, 325; 323, 327), the first boundary (341, 343; 361) line is located in the first area , and the second boundary line adjoins the second area , characterized by the processor being further configured to generate the around view image in which the second area is changed to include the overlapping area (331a, 331b, 333a, 333b; 345, 347), when it is predicted that a first object passes through the second boundary line due to an approach of the first object within a predetermined distance.
A path determining method, comprising: determining N 1 first-type nodes (101-108) from N nodes comprised in a first network topology, wherein the N nodes comprise the N 1 first-type nodes (101-108) and N 2 second-type nodes (101-108), the first-type node supports segment routing over internet protocol version 6, SRv6, N 1 is a positive integer greater than or equal to 2, and N 2 is a positive integer greater than or equal to 1; determining a second network topology corresponding to the first network topology, wherein the second network topology comprises the N 1 first-type nodes (101-108) but does not comprise the N 2 second-type nodes (101-108), a target topology structure comprises M first-type target paths, an i th first-type target path in the M first-type target paths corresponds to K i paths in the first network topology, a source node and a destination node of the K i paths are the same as a source node and a destination node of the i th first-type target path, each of the K i paths comprises at least one second-type node, M is a positive integer greater than or equal to 1, i = 1, ..., or M, and K i is a positive integer greater than or equal to 2; determining transmission overheads of the M first-type target paths, wherein a transmission overhead of the i th first type target path is a smallest value of transmission overheads of the K i paths; and performing path computation based on the transmission overheads of the M first-type target paths and the second network topology. determining N 1 first-type nodes (101-108) from N nodes comprised in a first network topology, wherein the N nodes comprise the N 1 first-type nodes (101-108) and N 2 second-type nodes (101-108), the first-type node supports segment routing over internet protocol version 6, SRv6, N 1 is a positive integer greater than or equal to 2, and N 2 is a positive integer greater than or equal to 1; determining a second network topology corresponding to the first network topology, wherein the second network topology comprises the N 1 first-type nodes (101-108) but does not comprise the N 2 second-type nodes (101-108), a target topology structure comprises M first-type target paths, an i th first-type target path in the M first-type target paths corresponds to K i paths in the first network topology, a source node and a destination node of the K i paths are the same as a source node and a destination node of the i th first-type target path, each of the K i paths comprises at least one second-type node, M is a positive integer greater than or equal to 1, i = 1, ..., or M, and K i is a positive integer greater than or equal to 2; determining transmission overheads of the M first-type target paths, wherein a transmission overhead of the i th first type target path is a smallest value of transmission overheads of the K i paths; and performing path computation based on the transmission overheads of the M first-type target paths and the second network topology.
An electronic device , wherein said electronic device is a bridge between a content rendering device and one or more light sources , said electronic device comprising at least one processor configured to: - receive a stream of light commands; - control said one or more light sources to render a dynamic light effect, at a normal speed, on the basis of said received light commands, - control said one or more light sources to pause said dynamic light effect, and - control said one or more light sources to resume said dynamic light effect, at a fast speed which is faster than said normal speed, on the basis of light commands, of said stream of light commands, received between pausing and resuming said dynamic light effect, and further control said one or more light sources on the basis of light commands received after resuming said dynamic light effect at said fast speed, characterised in that said at least one processor is configured to determine said fast speed such that said dynamic light effect will finish at the same time it would have finished if said dynamic light effect had not been paused. - receive a stream of light commands; - control said one or more light sources to render a dynamic light effect, at a normal speed, on the basis of said received light commands, - control said one or more light sources to pause said dynamic light effect, and - control said one or more light sources to resume said dynamic light effect, at a fast speed which is faster than said normal speed, on the basis of light commands, of said stream of light commands, received between pausing and resuming said dynamic light effect, and further control said one or more light sources on the basis of light commands received after resuming said dynamic light effect at said fast speed,
A solid scent booster composition comprising: - a solid carrier, - granulated powder comprising particles made of: a) a water soluble polymer matrix, b) an oil phase comprising a perfume dispersed in said polymer matrix, said oil being at least partly encapsulated in microcapsules, wherein - granulated powder comprises up to 30% by weight of encapsulated oil based on the total weight of the powder. - a solid carrier, - granulated powder comprising particles made of: a) a water soluble polymer matrix, b) an oil phase comprising a perfume dispersed in said polymer matrix, said oil being at least partly encapsulated in microcapsules, wherein a) a water soluble polymer matrix, b) an oil phase comprising a perfume dispersed in said polymer matrix, said oil being at least partly encapsulated in microcapsules, - granulated powder comprises up to 30% by weight of encapsulated oil based on the total weight of the powder.
A rollable display device comprising: a soft display panel ; a main roller for winding or unwinding the soft display panel ; an actuator coupled to the soft display panel to raise or lower the soft display panel ; a housing in which the main roller is mounted, wherein an opening extending in a first direction is defined at a top of the housing to allow the soft display panel to retract or extend therethrough; and an elastic portion having one end coupled to a perimeter of the opening and protruding in a second direction perpendicular to the first direction to cover at least a portion of the opening, wherein the elastic portion includes a rubber portion having a predetermined length along the first direction, wherein the rubber portion includes: a connecting portion coupled to the housing ; and a wing portion flatly extending from the connecting portion to cover the at least a portion of the opening, characterised in that : a thickness of the wing portion increases along a direction leading towards the connecting portion. a soft display panel ; a main roller for winding or unwinding the soft display panel ; an actuator coupled to the soft display panel to raise or lower the soft display panel ; a housing in which the main roller is mounted, wherein an opening extending in a first direction is defined at a top of the housing to allow the soft display panel to retract or extend therethrough; and an elastic portion having one end coupled to a perimeter of the opening and protruding in a second direction perpendicular to the first direction to cover at least a portion of the opening, wherein the elastic portion includes a rubber portion having a predetermined length along the first direction, wherein the rubber portion includes: a connecting portion coupled to the housing ; and a wing portion flatly extending from the connecting portion to cover the at least a portion of the opening, characterised in that : a thickness of the wing portion increases along a direction leading towards the connecting portion. a connecting portion coupled to the housing ; and a wing portion flatly extending from the connecting portion to cover the at least a portion of the opening, characterised in that : a thickness of the wing portion increases along a direction leading towards the connecting portion.