mhurhangee/patent-ind-claim-en huggingface dataset:
A method for reporting location change of user equipment, UE, wherein the method comprises: receiving, by a session management function entity, a presence reporting area, PRA, subscription request from a subscription entity, wherein the PRA subscription request carries an identity of a PRA set; sending (S304a; S304b), by the session management function entity, a PRA location change notification request to a mobility management entity, where the PRA location change notification request carries the identity of the PRA set and is used to instruct the mobility management entity to perform PRA location change reporting when the UE enters or leaves any PRA in the PRA set corresponding to the identity of the PRA set; receiving (S306) from the mobility management entity, by the session management function entity, location change information of the UE in a first PRA, an identity of the first PRA, and the identity of the PRA set, wherein the first PRA is in the PRA set, the location change information comprises information about entering or leaving the first PRA by the UE, wherein the session management function entity has stored thereon PRA subscription information comprising a correspondence between the identity of the first PRA set and an identity of the subscription entity; and sending (S308) to the subscription entity, by the session management function entity, the identity of the first PRA and the location change information according to the PRA subscription information. receiving, by a session management function entity, a presence reporting area, PRA, subscription request from a subscription entity, wherein the PRA subscription request carries an identity of a PRA set; sending (S304a; S304b), by the session management function entity, a PRA location change notification request to a mobility management entity, where the PRA location change notification request carries the identity of the PRA set and is used to instruct the mobility management entity to perform PRA location change reporting when the UE enters or leaves any PRA in the PRA set corresponding to the identity of the PRA set; receiving (S306) from the mobility management entity, by the session management function entity, location change information of the UE in a first PRA, an identity of the first PRA, and the identity of the PRA set, wherein the first PRA is in the PRA set, the location change information comprises information about entering or leaving the first PRA by the UE, wherein the session management function entity has stored thereon PRA subscription information comprising a correspondence between the identity of the first PRA set and an identity of the subscription entity; and sending (S308) to the subscription entity, by the session management function entity, the identity of the first PRA and the location change information according to the PRA subscription information.
A butterfly valve comprising: a valve member mounted on a shaft to pivot within a fluid passage; an actuator including a piston having opposed piston heads associated with fluid chambers , and a control to move the piston in a linear direction to control a position of said valve member in said fluid passage, said piston causing a roller pin to move as said piston moves linearly, said roller pin mounted in crank collars of a crank shaft such that movement of said roller pin causes said crank shaft to rotate said valve shaft; said roller pin being mounted within said crank collars by bearings , said bearings each having an outer race associated with one of said crank collars, an inner race associated with said roller pin, and bearing members separating said inner and outer race, there being a spring bias resisting movement of said inner races relative to said roller pin; said roller pin having channels associated with each of two axial ends and with each bearing , characterised by each of the channels being positioned between said bearings and each of the channels receiving a spring member to apply said spring bias outwardly to each said inner race, wherein said spring members are wave springs, and wherein a shim is positioned between each said wave spring and said inner race. a valve member mounted on a shaft to pivot within a fluid passage; an actuator including a piston having opposed piston heads associated with fluid chambers , and a control to move the piston in a linear direction to control a position of said valve member in said fluid passage, said piston causing a roller pin to move as said piston moves linearly, said roller pin mounted in crank collars of a crank shaft such that movement of said roller pin causes said crank shaft to rotate said valve shaft; said roller pin being mounted within said crank collars by bearings , said bearings each having an outer race associated with one of said crank collars, an inner race associated with said roller pin, and bearing members separating said inner and outer race, there being a spring bias resisting movement of said inner races relative to said roller pin;
An inhaler spacer comprising an inlet for connection to an inhaler and an outlet through which a user can inhale, the inhaler spacer comprising a duct extending between the inlet and the outlet , the duct being defined by a wall which extends around a first axis and comprising a diffuser portion extending along the first axis away from the inlet , the wall of the duct in at least a part of the diffuser portion curving outwardly away from the first axis with increasing distance away from the inlet such that the cross sectional area of the diffuser portion perpendicular to the first axis increases with increased distance from the inlet along the first axis , wherein the diffuser portion extends between 6 cm and 12 cm along the first axis and has a maximum diameter of between 4 cm and 8 cm, wherein the outlet comprises a protruding mouthpiece, and the spacer includes a movable mouthpiece cover which is coupled to the inhaler spacer and can be moved between a closed position in which mouthpiece cover substantially covers the mouthpiece and an open position in which the mouthpiece is exposed for use, wherein the wall of the diffuser portion proximal the inlet extends at an angle of less than 5 degrees away from the first axis and the wall of the diffuser portion distal from the inlet extends at an angle of more than 15 degrees away from the first axis .
Pump for liquid loaded with solids with a cutting head for interaction with a cutting ring and with an impeller , wherein the cutting head has a cutting head base body which is assigned to the impeller of the pump, wherein a plurality of cutting segments are provided on a circumferential surface of the cutting head base body , the cutting segments each have axially extending cutting head cutting edges for comminuting the solids, the cutting segments each extend radially away from the cutting head base body and the cutting segments each extend from a fluid inlet side of the cutting head arranged opposite the impeller essentially axially in the direction of the impeller , and at least two of the cutting head cutting edges comprise axial extensions of different lengths. the cutting head has a cutting head base body which is assigned to the impeller of the pump, wherein a plurality of cutting segments are provided on a circumferential surface of the cutting head base body , the cutting segments each have axially extending cutting head cutting edges for comminuting the solids, the cutting segments each extend radially away from the cutting head base body and the cutting segments each extend from a fluid inlet side of the cutting head arranged opposite the impeller essentially axially in the direction of the impeller , and at least two of the cutting head cutting edges comprise axial extensions of different lengths.
A method for fabricating an integrated circuit comprising: identifying, by a computing system, structures of the integrated circuit capable of being fabricated utilizing a lithographic mask described by mask layout data; utilizing, by the computing system, process windows for the identified structures to determine failure rates for the identified structures based, at least in part, on a distribution of manufacturing parameters during fabrication; determining, by the computing system, frequency of occurrences for the identified structures in the integrated circuit from the mask layout data; generating, by the computing system, a die yield metric for the integrated circuit based, at least in part, on the failure rates for the identified structures and frequency of occurrences for the identified structures in the integrated circuit; and setting, by the computing system, values for the manufacturing parameters for use during fabrication of the integrated circuit based, at least in part, on the die yield metric for the integrated circuit, wherein the set values for the manufacturing parameters are included in a failure presentation which is utilized to fabricate the integrated circuit. identifying, by a computing system, structures of the integrated circuit capable of being fabricated utilizing a lithographic mask described by mask layout data; utilizing, by the computing system, process windows for the identified structures to determine failure rates for the identified structures based, at least in part, on a distribution of manufacturing parameters during fabrication; determining, by the computing system, frequency of occurrences for the identified structures in the integrated circuit from the mask layout data; generating, by the computing system, a die yield metric for the integrated circuit based, at least in part, on the failure rates for the identified structures and frequency of occurrences for the identified structures in the integrated circuit; and setting, by the computing system, values for the manufacturing parameters for use during fabrication of the integrated circuit based, at least in part, on the die yield metric for the integrated circuit, wherein the set values for the manufacturing parameters are included in a failure presentation which is utilized to fabricate the integrated circuit.
An en route fluid transmitting apparatus for transmitting a fluid from a transmitting entity to a probe of a receiving vehicle , comprising: a funnel that is adapted to engage with the probe ; a hose , comprising: a first end that is attachable to the transmitting entity , and a second end (131 b), that is attached to the funnel , wherein the hose is adapted to convey the fluid from the transmitting entity to the funnel ; and a thrust producing device , comprising: a main body that is rigidly attached to the funnel ; characterized in that the thrust producing device further comprises: at least two rotors that are connected to the main body for producing thrust; wherein the thrust producing device is adapted to move the funnel freely in any direction to a predetermined position relative to the probe where the funnel engages with the probe . a funnel that is adapted to engage with the probe ; a hose , comprising: a first end that is attachable to the transmitting entity , and a second end (131 b), that is attached to the funnel , wherein the hose is adapted to convey the fluid from the transmitting entity to the funnel ; and a first end that is attachable to the transmitting entity , and a second end (131 b), that is attached to the funnel , wherein the hose is adapted to convey the fluid from the transmitting entity to the funnel ; and a thrust producing device , comprising: a main body that is rigidly attached to the funnel ; characterized in that the thrust producing device further comprises: at least two rotors that are connected to the main body for producing thrust; wherein the thrust producing device is adapted to move the funnel freely in any direction to a predetermined position relative to the probe where the funnel engages with the probe .
A method for stitching, the method comprising: (a) examining, by an examiner having at least one memory and at least one processor, an embroidery design comprising computer program instructions for needle drop locations of stitches and movement instructions of a work piece relative to a sewing head , wherein the examiner is operably coupled to a controller and the sewing head , and wherein the controller comprises a memory having a capacity, and wherein the controller is operable to cause the sewing head to stitch a work piece ; (b) determining, by the examiner , a needle drop location of each stitch of the embroidery design and movement instructions of the sewing head relative to the work piece based on the examined embroidery design; (c) dividing, by the examiner , the examined embroidery design into a plurality of separate sections; (d) transmitting the plurality of separate sections at a plurality of different times to the controller based on the capacity such that the plurality of separate sections do not exceed the capacity of the memory at any one of the plurality of different times; and (e) in response to the controller , stitching, by the sewing head , the plurality of separate sections into the work piece based on the determined needle drop location. (a) examining, by an examiner having at least one memory and at least one processor, an embroidery design comprising computer program instructions for needle drop locations of stitches and movement instructions of a work piece relative to a sewing head , wherein the examiner is operably coupled to a controller and the sewing head , and wherein the controller comprises a memory having a capacity, and wherein the controller is operable to cause the sewing head to stitch a work piece ; (b) determining, by the examiner , a needle drop location of each stitch of the embroidery design and movement instructions of the sewing head relative to the work piece based on the examined embroidery design; (c) dividing, by the examiner , the examined embroidery design into a plurality of separate sections; (d) transmitting the plurality of separate sections at a plurality of different times to the controller based on the capacity such that the plurality of separate sections do not exceed the capacity of the memory at any one of the plurality of different times; and (e) in response to the controller , stitching, by the sewing head , the plurality of separate sections into the work piece based on the determined needle drop location.
An operation method of a first base station for activating or deactivating packet duplication in a wireless communication system, the operating method comprising: transmitting, by a central unit, CU, of the first base station to a distributed unit, DU, of the first base station via F1 interface, a user equipment, UE, context message including information to activate or deactivate a dual connectivity, DC, based packet duplication for a data radio bearer, DRB; transmitting, to a second base station, a first message including the information, wherein the first message is transmitted via a Xn or X2 interface; and transmitting, to a user equipment, UE, a medium access control control element, MAC CE, indicating whether to activate or deactivate packet duplication for the DRB, wherein the first base station and the second base station are configured as DC for the UE. transmitting, by a central unit, CU, of the first base station to a distributed unit, DU, of the first base station via F1 interface, a user equipment, UE, context message including information to activate or deactivate a dual connectivity, DC, based packet duplication for a data radio bearer, DRB; transmitting, to a second base station, a first message including the information, wherein the first message is transmitted via a Xn or X2 interface; and transmitting, to a user equipment, UE, a medium access control control element, MAC CE, indicating whether to activate or deactivate packet duplication for the DRB, wherein the first base station and the second base station are configured as DC for the UE.
A radio-frequency front-end circuit of a multi-frequency terminal, comprising a radio-frequency transceiver chip, a radio-frequency amplifier chip and one radio-frequency switch, wherein: in the radio-frequency transceiver chip, all frequency bands share one transmission port; the radio-frequency amplifier chip comprises a plurality of radio-frequency amplifiers respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, the plurality of radio-frequency amplifiers are integrated together and share one input port; the input port of the radio-frequency amplifier chip is connected to a transmission port of the radio-frequency transceiver chip; the one radio-frequency switch is used to connect to an output of the radio-frequency amplifier chip, and is configured to switch signals in different frequency bands; wherein: the radio-frequency front-end circuit of the multi-frequency terminal further comprises a plurality of filters respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, and inputs of the plurality of filters are connected to an output of the radio-frequency switch and thus parallelly connected to the output of the radio-frequency amplifier chip via the radio-frequency switch. in the radio-frequency transceiver chip, all frequency bands share one transmission port; the radio-frequency amplifier chip comprises a plurality of radio-frequency amplifiers respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, the plurality of radio-frequency amplifiers are integrated together and share one input port; the input port of the radio-frequency amplifier chip is connected to a transmission port of the radio-frequency transceiver chip; the one radio-frequency switch is used to connect to an output of the radio-frequency amplifier chip, and is configured to switch signals in different frequency bands; wherein: the radio-frequency front-end circuit of the multi-frequency terminal further comprises a plurality of filters respectively corresponding to a plurality of frequency bands in which the radio-frequency transceiver chip transmits signals, and inputs of the plurality of filters are connected to an output of the radio-frequency switch and thus parallelly connected to the output of the radio-frequency amplifier chip via the radio-frequency switch.
A laundry or cleaning composition comprising an enzyme having DNase activity, an enzyme having hexosaminidase activity and a cleaning adjunct ingredient, wherein the enzyme having DNase activity is a polypeptide having at least 80% sequence identity to SEQ ID NO: 2, and wherein the enzyme having hexosaminidase activity is a polypeptide having at least 80% sequence identity to any of SEQ ID NOs: 12, 13, 14, 19 or 20.
A method, comprising: moving a mold including a molten casting material in a first direction ; and guiding an interface , which is defined by a baffle, and separates a heat source region on a first side of the interface from a heat sink region on a second side of the interface , across the mold in a second direction in response to the moving the mold effective to advance a solidification front of the casting material along a mold axis extending in the second direction , wherein the second direction is deviated from the first direction , wherein the interface is inclined relative to the horizontal direction and is deviated from the first direction at a non-perpendicular angle and is deviated from the mold axis extending in the second direction at a non-perpendicular angle. moving a mold including a molten casting material in a first direction ; and guiding an interface , which is defined by a baffle, and separates a heat source region on a first side of the interface from a heat sink region on a second side of the interface , across the mold in a second direction in response to the moving the mold effective to advance a solidification front of the casting material along a mold axis extending in the second direction , wherein the second direction is deviated from the first direction , wherein the interface is inclined relative to the horizontal direction and is deviated from the first direction at a non-perpendicular angle and is deviated from the mold axis extending in the second direction at a non-perpendicular angle.
Hydraulic brake actuation assembly with a first and a second spool (41; 51), characterized in that the hydraulic brake actuation assembly comprises a first and a second subassembly (20; 60; 60'), which are configured to be mounted to each other in a pre-assembled manner, wherein the first subassembly comprises the first spool and a first actuation piston which are moveable along a first axis respectively, wherein at least one first spring is located between the first spool and the first actuation piston along the first axis , wherein the first subassembly comprises the second spool and a second actuation piston which are moveable along a second axis respectively, wherein at least one second spring is located between the second spool and the second actuation piston along the second axis , wherein the first and the second axis (40; 50) are parallel to each other, wherein the second subassembly (60; 60') comprises a third and a fourth actuation piston (62; 63), wherein the third actuation piston is moveable along the first axis , wherein it has a third contact surface , which is able to contact a first contact surface of the first actuation piston , wherein the fourth actuation piston is moveable along the second axis , wherein it has a fourth contact surface which is able to contact a second contact surface of the second actuation piston . characterized in that the hydraulic brake actuation assembly comprises a first and a second subassembly (20; 60; 60'), which are configured to be mounted to each other in a pre-assembled manner, wherein the first subassembly comprises the first spool and a first actuation piston which are moveable along a first axis respectively, wherein at least one first spring is located between the first spool and the first actuation piston along the first axis , wherein the first subassembly comprises the second spool and a second actuation piston which are moveable along a second axis respectively, wherein at least one second spring is located between the second spool and the second actuation piston along the second axis , wherein the first and the second axis (40; 50) are parallel to each other, wherein the second subassembly (60; 60') comprises a third and a fourth actuation piston (62; 63), wherein the third actuation piston is moveable along the first axis , wherein it has a third contact surface , which is able to contact a first contact surface of the first actuation piston , wherein the fourth actuation piston is moveable along the second axis , wherein it has a fourth contact surface which is able to contact a second contact surface of the second actuation piston .
A nanostructured lipid particle for use in the treatment or prevention of a disease induced by Helicobacter pylori comprising a mixture of a solid lipid, a liquid lipid, a surfactant; wherein the solid lipid is glyceryl palmitostearate; wherein the liquid lipid is Caprylic/Capric Triglyceride; wherein the surfactant is polysorbate 60; wherein the nanostructured lipid particle is a Helicobacter pylori bactericide. a mixture of a solid lipid, a liquid lipid, a surfactant; wherein the solid lipid is glyceryl palmitostearate; wherein the liquid lipid is Caprylic/Capric Triglyceride; wherein the surfactant is polysorbate 60; wherein the nanostructured lipid particle is a Helicobacter pylori bactericide.