mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic tire having a tread portion , wherein the tread portion comprises a tread rubber forming a ground contacting surface, and a band layer disposed radially inside the tread rubber , the tread rubber is provided with a first circumferential groove extending continuously in the tire circumferential direction in the ground contacting surface, the band layer comprises band cords arranged substantially parallel to the tire circumferential direction, and a topping rubber covering the band cords , and the band cords are a hybrid cord in which a first filament and a second filament having an elastic modulus lower than that of the first filament are twisted together, characterized in that in a region radially inside the first circumferential groove , a maximum thickness t1 of the topping rubber on the radially outer side of the band cord is not more than 1.0 mm, a minimum distance d1 from the bottom of the first circumferential groove to the radially outer surface of the band layer is not more than 2.0 mm, a distance d2 in a tire normal direction from a groove edge of the first circumferential groove to the radially outer surface of the band layer is not more than 15.0 mm, and a sea ratio of the ground contacting surface of the tread portion is 15% to 50%, wherein the sea ratio is the ratio of the sum of the opening areas of all the grooves to the total area of the virtual ground contacting surface in such a state that all the grooves in the ground contacting surface of the tread rubber are filled up. the tread portion comprises a tread rubber forming a ground contacting surface, and a band layer disposed radially inside the tread rubber , the tread rubber is provided with a first circumferential groove extending continuously in the tire circumferential direction in the ground contacting surface, the band layer comprises band cords arranged substantially parallel to the tire circumferential direction, and a topping rubber covering the band cords , and the band cords are a hybrid cord in which a first filament and a second filament having an elastic modulus lower than that of the first filament are twisted together, characterized in that in a region radially inside the first circumferential groove , a maximum thickness t1 of the topping rubber on the radially outer side of the band cord is not more than 1.0 mm, a minimum distance d1 from the bottom of the first circumferential groove to the radially outer surface of the band layer is not more than 2.0 mm, a distance d2 in a tire normal direction from a groove edge of the first circumferential groove to the radially outer surface of the band layer is not more than 15.0 mm, and a sea ratio of the ground contacting surface of the tread portion is 15% to 50%, wherein the sea ratio is the ratio of the sum of the opening areas of all the grooves to the total area of the virtual ground contacting surface in such a state that all the grooves in the ground contacting surface of the tread rubber are filled up.
Circuitry for a communications device configured to transmit or receive signals via a wireless access interface provided by a wireless communications network to or from one or more infrastructure equipment forming part of the wireless communications network, wherein the circuitry is configured to perform steps including, receiving (S92) a broadcast message from one of the infrastructure equipment comprising an indication that the infrastructure equipment is capable of operating in accordance with a packet data convergence protocol, PDCP, in accordance with a first radio access technology, establishing (S94) a PDCP entity, and subsequently transmitting (S96) a Radio Resource Control, RRC, Connection Setup Complete message to the infrastructure equipment comprising an indication that the communications device is capable of operating in accordance with one or both of the PDCP in accordance with the first radio access technology and a PDCP in accordance with a second radio access technology. receiving (S92) a broadcast message from one of the infrastructure equipment comprising an indication that the infrastructure equipment is capable of operating in accordance with a packet data convergence protocol, PDCP, in accordance with a first radio access technology, establishing (S94) a PDCP entity, and subsequently transmitting (S96) a Radio Resource Control, RRC, Connection Setup Complete message to the infrastructure equipment comprising an indication that the communications device is capable of operating in accordance with one or both of the PDCP in accordance with the first radio access technology and a PDCP in accordance with a second radio access technology.
A method used by a user equipment, UE, to determine a used data radio bearer, DRB, for uplink, UL, data packet transmission, and the method comprising: receiving through a first data radio bearer, DRB (DRB A), a first plurality of downlink, DL, data packets (SN 13 - 18) from a base station (S201); determining, from a first plurality of protocol headers which correspond to the first plurality of DL data packets (SN 13 - 18), a first indicator which indicates that the first plurality of DL data packets belong to a first Quality of Service, QoS, flow (QoS flow 1) which has not been mapped to the first DRB (DRB A) (S202); and mapping the first QoS flow (QoS flow 1) to the first DRB (DRB A) in response to the first plurality of DL data packets (SN 13 - 18) belonging to the first QoS flow (QoS flow 1) which has not been mapped to the first DRB (DRB A) (S203). receiving through a first data radio bearer, DRB (DRB A), a first plurality of downlink, DL, data packets (SN 13 - 18) from a base station (S201); determining, from a first plurality of protocol headers which correspond to the first plurality of DL data packets (SN 13 - 18), a first indicator which indicates that the first plurality of DL data packets belong to a first Quality of Service, QoS, flow (QoS flow 1) which has not been mapped to the first DRB (DRB A) (S202); and mapping the first QoS flow (QoS flow 1) to the first DRB (DRB A) in response to the first plurality of DL data packets (SN 13 - 18) belonging to the first QoS flow (QoS flow 1) which has not been mapped to the first DRB (DRB A) (S203).
Centrifuge, comprising a drive shaft that is rotatable about an axis of rotation , an adapter that is connected to the drive shaft or that is part of the drive shaft , a rotor that is mounted on the adapter and can be axially removed in a removal direction, a quick-release fastener that acts between the rotor and the adapter , which fastener can be used to fix the rotor relative to the adapter in the removal direction and to release it as required, a support connected to the adapter , a locking bearing connected to the rotor , at least one blocking element which is part of the quick-release fastener and which, when activated, fixes the rotor relative to the adapter and thus to the drive shaft and acts between the locking bearing of the rotor and the support of the drive shaft , with the quick-release fastener including an actuating element , with the blocking element being operatively connected to the actuating element in such a way that the actuating element is mounted such that it can be moved linearly, in particular parallel to the axis of rotation of the drive shaft , between an unlocking position and a locking position, which blocking element performs a linear movement relative to the adapter during movement of the actuating element , which blocking element is adapted to be moved between the locking position and the unlocking position at a first angle (α) relative to the axis of rotation , and the locking bearing is aligned at a second angle (ß) relative to the axis of rotation , which angle (β) is different from the first angle (α), characterized in that the angles (α, ß) are measured clockwise from the axis of rotation , starting from the side of the actuating element , and are between 0° and 90°.
Support assembly comprising a pipeline extending along a centre axis (M), a support clamp surrounding and supporting the pipeline , and at least one sound-damping damping element arranged at least partly between support clamp and pipeline , wherein the support clamp and the damping element are designed in such a manner that when the support clamp assumes the support diameter, in particular in the active region of the support clamp , a tolerance gap is present between damping element and pipeline , and wherein the pipeline comprises a stop face integrally moulded onto the pipeline and that the damping element comprises a support face on which the stop face is supported in such a manner that substantially an axial mounting in the direction of the centre axis (M) is provided, characterized in that the diameter of the support clamp is variable to a support diameter; and in that the stop face and the support face are substantially formed identical in shape, wherein the diameter (D7) of the support face changes, with increasing distance from a plane (E), which extends at a right angle to the centre axis (M) at the place of the minimum diameter of the support face , to a greater degree than the diameter of the stop face with identically increasing distance from said plane (E).
A method of forming a printhead , comprising: forming first and second resistors over a first dielectric ; forming a first portion of a second dielectric over the first and second resistors and a second portion of the second dielectric over an exposed inclined surface of the first dielectric in a region between the first and second resistors ; and forming a metal conductor over the first and second portions of the second dielectric ; characterized by removing an inclined segment of the metal conductor from an inclined surface of the second portion of the second dielectric to expose the inclined surface of the second portion of the second dielectric . forming first and second resistors over a first dielectric ; forming a first portion of a second dielectric over the first and second resistors and a second portion of the second dielectric over an exposed inclined surface of the first dielectric in a region between the first and second resistors ; and forming a metal conductor over the first and second portions of the second dielectric ; characterized by removing an inclined segment of the metal conductor from an inclined surface of the second portion of the second dielectric to expose the inclined surface of the second portion of the second dielectric .
A range finding device comprising: a plurality of light emission units each including a light source and a light source optical system , each configured to emit irradiation light to a respective object, wherein at least two of the light emission units have angles of view that partially overlap; a plurality of light reception units each corresponding to a respective light emission unit of the plurality of light emission units configured to receive reflection light coming from the respective object when the irradiation light hits and reflects from the respective object, the number of plurality of light reception units being the same number of the plurality of light emission units ; an operation control unit configured to shift light emission timing of at least one or more light sources among the plurality of light sources , whereby at least for the light emission units having partially overlapping angles of view, the light emission timings do not overlap; and a measurement unit configured to calculate a distance to the respective objects based on information output from each of the plurality of light reception units . a plurality of light emission units each including a light source and a light source optical system , each configured to emit irradiation light to a respective object, wherein at least two of the light emission units have angles of view that partially overlap; a plurality of light reception units each corresponding to a respective light emission unit of the plurality of light emission units configured to receive reflection light coming from the respective object when the irradiation light hits and reflects from the respective object, the number of plurality of light reception units being the same number of the plurality of light emission units ; an operation control unit configured to shift light emission timing of at least one or more light sources among the plurality of light sources , whereby at least for the light emission units having partially overlapping angles of view, the light emission timings do not overlap; and a measurement unit configured to calculate a distance to the respective objects based on information output from each of the plurality of light reception units .
Cannula for fluid perfusion, said cannula comprising: • a tubular body extending from a proximal portion to a distal portion thereof, the tubular body being provided internally with a cavity defining a first opening in the distal portion allowing a fluid to exit the cavity in a first direction (D1), • the tubular body comprising a connection portion lying between the proximal and distal portions, the connection portion being configured or configurable so as to have a curved shape and being sized so as to be inserted into a blood vessel by the distal portion , • a duct extending from a first end to a second end thereof, the second end being provided with an auxiliary opening placed at the connection portion so as to allow a fluid to exit the duct in a second direction (D2) opposite to the first direction (D1), wherein the first end is placed in fluid communication with the cavity so that a fluid flowing in the cavity toward the first opening flows at least in part into the duct , wherein the duct is provided with a valve device designed to shut off, or allow, the flow of a fluid flowing through the duct from one end to the other thereof, depending on whether the valve device is in a first configuration or in a second configuration, respectively, wherein the duct is provided with an intermediate hole located between the first and the second ends, and the valve device is a three-way valve comprising a shutter arranged inside the duct , the shutter , when in said first configuration, being suitable for occluding the duct while keeping the intermediate hole substantially open so as to divert a fluid injected into the duct through the auxiliary opening toward the intermediate hole and/or to divert a second fluid injected into the duct through the intermediate hole toward the auxiliary opening , and the shutter , when in said second configuration, being suitable for occluding the intermediate hole while keeping the duct substantially open so as to allow a fluid to flow from the first end to the second end , or vice versa, and characterized in that the cannula comprises a connector which extends from the intermediate hole and is suitable for being connected to an inlet tube of a pressure transducer and/or to an outlet tube of a fluid source. • a tubular body extending from a proximal portion to a distal portion thereof, the tubular body being provided internally with a cavity defining a first opening in the distal portion allowing a fluid to exit the cavity in a first direction (D1), • the tubular body comprising a connection portion lying between the proximal and distal portions, the connection portion being configured or configurable so as to have a curved shape and being sized so as to be inserted into a blood vessel by the distal portion , • a duct extending from a first end to a second end thereof, the second end being provided with an auxiliary opening placed at the connection portion so as to allow a fluid to exit the duct in a second direction (D2) opposite to the first direction (D1),
A communication system adapted for storing communication messages destined for one or more recipients , said system comprising a processor , a first storage , and a second storage , wherein said messages are stored in a unique physical location on either the first storage or the second storage, and characterized in that the processor is configured to determine on which of said first or second storages to store said messages in function of one or more predetermined characteristics of said messages.
A substrate contamination analysis system , comprising: a vapor phase decomposition device configured to expose a film formed on a surface of a first substrate to a gas that reacts with the film , to thereby dissolve the film ; a recovery device configured to perform a first recovery operation of moving a first object to be measured, which adheres to the surface of the film , to a first measurement position without the film being dissolved and a second recovery operation of moving a second object to be measured, which is present in the film , to a second measurement position after the film is dissolved; and an analyzer configured to analyze the first object to be measured every time the recovery device performs the first recovery operation, and to analyze the second object to be measured every time the recovery device performs the second recovery operation. a vapor phase decomposition device configured to expose a film formed on a surface of a first substrate to a gas that reacts with the film , to thereby dissolve the film ; a recovery device configured to perform a first recovery operation of moving a first object to be measured, which adheres to the surface of the film , to a first measurement position without the film being dissolved and a second recovery operation of moving a second object to be measured, which is present in the film , to a second measurement position after the film is dissolved; and an analyzer configured to analyze the first object to be measured every time the recovery device performs the first recovery operation, and to analyze the second object to be measured every time the recovery device performs the second recovery operation.
A laser source assembly comprising a common optical reference substrate, a top major surface of the common optical reference substrate defining an optical reference plane; a receiving block attached to the top major surface of the common optical reference substrate at a first defined location, the receiving block including a plurality of V-grooves configured to support a plurality of optical fibers; a silicon submount attached to the top major surface of the common optical reference substrate at a second defined location, spaced apart from the first defined location, the silicon submount for supporting an array of laser diode sources in optical alignment with the plurality of optical fibers supported by the receiving block in a one-to-one association; and a plurality of passive optical devices attached to the top major surface of the common optical reference substrate and disposed between the receiving block and the silicon substrate, the plurality of passive optical devices utilized to achieve optical alignment between the plurality of laser diode sources and the plurality of optical fibers. a common optical reference substrate, a top major surface of the common optical reference substrate defining an optical reference plane; a receiving block attached to the top major surface of the common optical reference substrate at a first defined location, the receiving block including a plurality of V-grooves configured to support a plurality of optical fibers; a silicon submount attached to the top major surface of the common optical reference substrate at a second defined location, spaced apart from the first defined location, the silicon submount for supporting an array of laser diode sources in optical alignment with the plurality of optical fibers supported by the receiving block in a one-to-one association; and a plurality of passive optical devices attached to the top major surface of the common optical reference substrate and disposed between the receiving block and the silicon substrate, the plurality of passive optical devices utilized to achieve optical alignment between the plurality of laser diode sources and the plurality of optical fibers.
A flow dampener comprising: two sections, each section comprising a body shell having an interior surface and an elongate groove formed on the interior surface, and a flexible membrane sealed to the interior surface of the body shell and covering the elongate groove, the flexible membrane cooperating with the elongate groove to form an elongate flow path , the elongate flow path having two ends, wherein flexibility of the membrane dampens vibration in a flow of fluid through the elongate flow path; two external flow ports , one external flow port to one end of the elongate flow path in each section; and a through flow port providing a flow path between the other ends of the elongate flow paths; wherein each of the two external flow ports comprises a hole through the body shell of one section, and the through flow port comprises a hole through the flexible membrane of each section. two sections, each section comprising a body shell having an interior surface and an elongate groove formed on the interior surface, and a flexible membrane sealed to the interior surface of the body shell and covering the elongate groove, the flexible membrane cooperating with the elongate groove to form an elongate flow path , the elongate flow path having two ends, wherein flexibility of the membrane dampens vibration in a flow of fluid through the elongate flow path; a body shell having an interior surface and an elongate groove formed on the interior surface, and a flexible membrane sealed to the interior surface of the body shell and covering the elongate groove, the flexible membrane cooperating with the elongate groove to form an elongate flow path , the elongate flow path having two ends, wherein flexibility of the membrane dampens vibration in a flow of fluid through the elongate flow path; two external flow ports , one external flow port to one end of the elongate flow path in each section; and a through flow port providing a flow path between the other ends of the elongate flow paths; wherein each of the two external flow ports comprises a hole through the body shell of one section, and the through flow port comprises a hole through the flexible membrane of each section.
A computer-implemented method comprising: obtaining a first collection of endpoint information about endpoints in a network , wherein the first collection of endpoint information is retrieved from a plurality of spine nodes in the network ; obtaining a second collection of endpoint information about endpoints in the network , wherein the second collection of endpoint information is retrieved from a plurality of leaf nodes in the network ; determining that there is an inconsistency based on a comparison of the first collection of endpoint information retrieved from the plurality of spine nodes with the second collection of endpoint information retrieved from the plurality of leaf nodes ; and generating an event specifying the inconsistency; wherein the network includes a two-layer network fabric in which spine nodes interconnect leaf nodes such that each spine node is connected to every leaf node ; and wherein each leaf node connects to one or more endpoints external to the network fabric . obtaining a first collection of endpoint information about endpoints in a network , wherein the first collection of endpoint information is retrieved from a plurality of spine nodes in the network ; obtaining a second collection of endpoint information about endpoints in the network , wherein the second collection of endpoint information is retrieved from a plurality of leaf nodes in the network ; determining that there is an inconsistency based on a comparison of the first collection of endpoint information retrieved from the plurality of spine nodes with the second collection of endpoint information retrieved from the plurality of leaf nodes ; and generating an event specifying the inconsistency; wherein the network includes a two-layer network fabric in which spine nodes interconnect leaf nodes such that each spine node is connected to every leaf node ; and wherein each leaf node connects to one or more endpoints external to the network fabric .