mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel pump assembly for a gas turbine engine, the fuel pump assembly comprising: a shaft for transmitting motion; a gear connected to and coaxial with the shaft , the gear having a first wear surface; a first bearing coaxial with the shaft , the first bearing being configured to support the gear, wherein the first bearing has a second wear surface positioned to interact with the first wear surface; and a plurality of indents , wherein the indents are distributed in the first wear surface or the second wear surface and at least two of the plurality of indents are partially aligned in a radial direction, and characterized in that each of the indents has a depth that the indents extend into the first wear surface or the second wear surface and a ratio of a surface area of one of the indents to the depth of one of the indents is between 0.01 and 0.05 a shaft for transmitting motion; a gear connected to and coaxial with the shaft , the gear having a first wear surface; a first bearing coaxial with the shaft , the first bearing being configured to support the gear, wherein the first bearing has a second wear surface positioned to interact with the first wear surface; and a plurality of indents , wherein the indents are distributed in the first wear surface or the second wear surface and at least two of the plurality of indents are partially aligned in a radial direction, and characterized in that each of the indents has a depth that the indents extend into the first wear surface or the second wear surface and a ratio of a surface area of one of the indents to the depth of one of the indents is between 0.01 and 0.05
A method performed by a transmitting radio node for scheduling service data flows within a radio bearer towards a receiving radio node in a radio communications network , the method comprising: - identifying at least two service data flows within the radio bearer towards the receiving radio node , wherein each service data flow is associated with a service and/or a service quality requirement, which service and/or service quality requirement is different for respective service data flow; characterized in comprising: - mapping a Packet Data Convergence Protocol, PDCP, Service Data Unit, SDU, of respective service data flow to a respective scheduling queue on a PDCP layer, wherein each scheduling queue is associated with the service and/or the service quality requirement of the respective service data flow; and - scheduling to the receiving radio node , the PDCP SDUs within the scheduling queues of the at least two service data flows, based on the service and/or the service quality requirement associated with the respective scheduling queue on the PDCP layer, wherein the scheduling , at a scheduling instant, comprises to combine PDCP SDUs of the scheduling queues adhering to the radio bearer, into one PDCP flow per radio bearer of PDCP Packet Data Units, PDUs, for which header compression, PDCP numbering and ciphering are performed and to forward the PDCP PDUs to Radio Link Control, RLC, and Medium Access Control, MAC, protocol layers for further treatment. - identifying at least two service data flows within the radio bearer towards the receiving radio node , wherein each service data flow is associated with a service and/or a service quality requirement, which service and/or service quality requirement is different for respective service data flow; characterized in comprising: - mapping a Packet Data Convergence Protocol, PDCP, Service Data Unit, SDU, of respective service data flow to a respective scheduling queue on a PDCP layer, wherein each scheduling queue is associated with the service and/or the service quality requirement of the respective service data flow; and - scheduling to the receiving radio node , the PDCP SDUs within the scheduling queues of the at least two service data flows, based on the service and/or the service quality requirement associated with the respective scheduling queue on the PDCP layer, wherein the scheduling , at a scheduling instant, comprises to combine PDCP SDUs of the scheduling queues adhering to the radio bearer, into one PDCP flow per radio bearer of PDCP Packet Data Units, PDUs, for which header compression, PDCP numbering and ciphering are performed and to forward the PDCP PDUs to Radio Link Control, RLC, and Medium Access Control, MAC, protocol layers for further treatment.
An optical fiber splice enclosure , comprising: - a cap enclosing an inner volume, the cap having an access opening for accessing the inner volume, - a base removably attached to the access opening of the cap , the base having one or more ports for access of optical cables into the inner volume, - a fiber routing frame mounted on the base and arranged into the inner volume, and - a tubular element arranged in the inner volume and surrounding the fiber routing frame , the tubular element having a first edge portion and a second edge portion , the tubular element comprising first retaining elements arranged at the first edge portion , and second retaining elements arranged at the second edge portion , the first retaining elements and second retaining elements being configured to be mutually coupled for retaining together the first edge portion and the second edge portion , wherein: - the tubular element comprises a bottom tubular portion proximate to the base , a top tubular portion distal to the base , and one or more frangible lines releasably connecting the top tubular portion to the bottom tubular portion ; - each first retaining element comprises a protrusion and each second retaining element comprises a slot configured for receiving and retaining a protrusion, wherein - said slots are arranged in slot arrays, whereby a protrusion is configured to be received selectively in each slot of a slot array for adjusting a distance between the first edge portion and the second edge portion . - a cap enclosing an inner volume, the cap having an access opening for accessing the inner volume, - a base removably attached to the access opening of the cap , the base having one or more ports for access of optical cables into the inner volume, - a fiber routing frame mounted on the base and arranged into the inner volume, and - a tubular element arranged in the inner volume and surrounding the fiber routing frame , the tubular element having a first edge portion and a second edge portion , the tubular element comprising first retaining elements arranged at the first edge portion , and second retaining elements arranged at the second edge portion , the first retaining elements and second retaining elements being configured to be mutually coupled for retaining together the first edge portion and the second edge portion , - the tubular element comprises a bottom tubular portion proximate to the base , a top tubular portion distal to the base , and one or more frangible lines releasably connecting the top tubular portion to the bottom tubular portion ; - each first retaining element comprises a protrusion and each second retaining element comprises a slot configured for receiving and retaining a protrusion, wherein - said slots are arranged in slot arrays, whereby a protrusion is configured to be received selectively in each slot of a slot array for adjusting a distance between the first edge portion and the second edge portion .
A method for operating a laundry washing machine based on the type of detergent that is being provided to the laundry washing machine , the method comprising: providing, at a user input, a unit dose package operation mode control; deactivating a default detergent operation mode and activating a unit dose package operation mode in response to receiving a first selection of the unit dose package operation mode control from the user input; performing a plurality of complete washing cycles in the unit dose package operation mode without receiving a further selection of the unit dose package operation mode from the user input; and deactivating the unit dose package operation mode and activating the default detergent operating mode in response to receiving a second selection of the unit dose package operation mode control from the user input; wherein the default detergent operation mode comprises one or more operating parameters that are different from the operating parameters of the unit dose package operation mode; characterized in that the default detergent operation mode comprises a first procedure for dispensing water into the laundry washing machine, and the unit dose package operation mode comprises a second procedure for dispensing water into the laundry washing machine, the second procedure being different from the first procedure. providing, at a user input, a unit dose package operation mode control; deactivating a default detergent operation mode and activating a unit dose package operation mode in response to receiving a first selection of the unit dose package operation mode control from the user input; performing a plurality of complete washing cycles in the unit dose package operation mode without receiving a further selection of the unit dose package operation mode from the user input; and deactivating the unit dose package operation mode and activating the default detergent operating mode in response to receiving a second selection of the unit dose package operation mode control from the user input; wherein the default detergent operation mode comprises one or more operating parameters that are different from the operating parameters of the unit dose package operation mode; characterized in that the default detergent operation mode comprises a first procedure for dispensing water into the laundry washing machine, and the unit dose package operation mode comprises a second procedure for dispensing water into the laundry washing machine, the second procedure being different from the first procedure.
A method of wireless communication, performed by an eNodeB, comprising: transmitting resources on a carrier, the resources comprising a first set of resources associated with a first carrier type and a second set of resources associated with a second carrier type; and signaling support of the first carrier type to at least one first carrier type UE while maintaining signaling with second carrier type UEs, wherein the signaling comprises: defining a same primary synchronization signal, PSS location for the first carrier type and the second carrier type; defining one location for a secondary synchronization signal, SSS for the first carrier type and another location for an SSS for the second carrier type, wherein a first set of the PSS and the SSS for the first carrier type is mapped to a first physical cell identifier, PCI and a second set of the PSS and the SSS for the second carrier type is mapped to a second PCI different than the first PCI. transmitting resources on a carrier, the resources comprising a first set of resources associated with a first carrier type and a second set of resources associated with a second carrier type; and signaling support of the first carrier type to at least one first carrier type UE while maintaining signaling with second carrier type UEs, wherein the signaling comprises: defining a same primary synchronization signal, PSS location for the first carrier type and the second carrier type; defining one location for a secondary synchronization signal, SSS for the first carrier type and another location for an SSS for the second carrier type, wherein a first set of the PSS and the SSS for the first carrier type is mapped to a first physical cell identifier, PCI and a second set of the PSS and the SSS for the second carrier type is mapped to a second PCI different than the first PCI. defining a same primary synchronization signal, PSS location for the first carrier type and the second carrier type; defining one location for a secondary synchronization signal, SSS for the first carrier type and another location for an SSS for the second carrier type, wherein a first set of the PSS and the SSS for the first carrier type is mapped to a first physical cell identifier, PCI and a second set of the PSS and the SSS for the second carrier type is mapped to a second PCI different than the first PCI.
Arrangement comprising at least one pipe clip , at least one pipe for panel heating/cooling systems, a setting tool and an installation board , wherein the pipe clip is provided for fastening the at least one pipe to the installation board , wherein the pipe clip has a central, arcuate portion (a) with symmetrically arranged pivoting arcs (b, c) adjoining the ends thereof, said pivoting arcs (b, c) being introducible into an installation board suitable for the underlying surface by using the setting tool , wherein the portion (a) in the central region of the pipe clip has a region that matches the pipe contour of the pipe to be fastened and the opening size of the portion (a) is greater than the pipe diameter, wherein the respective ends of the portion (a) are connected to the pivoting arcs (b, c) via leg pivot points (a1, a2) and the pivoting arcs (b, c) are formed in a claw-like manner with an arc-like profile that is open towards the underlying surface, wherein, in the region of the arc-like profile, points of application (b1, c1) are provided, the spacing of which from the respective leg pivot point (a1, a2) forms the lever arm for introducing the pipe clip into the installation board by means of the setting tool , characterized in that the pipe clip , the at least one pipe for panel heating/cooling systems, the setting tool and the installation board are designed such that the pipe to be fastened forms the counter bearing for the reshaping and the reshaping takes place via the leg pivot points (a1, a2) for the one part and via the pipe for the other, wherein the portion encloses more than half the pipe circumference after the reshaping.
A suspension profile for suspending an article, for example a curtain, the suspension profile extending in a longitudinal direction (Y) and comprising: - a suspension portion having a tubular shape and extending in the longitudinal direction, said suspension portion having a bulb shape, considered in a plane (P) perpendicular to the longitudinal direction (Y); - a fixing portion extending parallel to the suspension portion, the suspension portion and the fixing portion, considered in the plane (P) perpendicular to the longitudinal direction, having a convex shape; - a connecting portion connecting the suspension portion to the fixing portion, the connecting portion extending parallel to the suspension portion and forming a neck for the suspension profile. - a suspension portion having a tubular shape and extending in the longitudinal direction, said suspension portion having a bulb shape, considered in a plane (P) perpendicular to the longitudinal direction (Y); - a fixing portion extending parallel to the suspension portion, the suspension portion and the fixing portion, considered in the plane (P) perpendicular to the longitudinal direction, having a convex shape; - a connecting portion connecting the suspension portion to the fixing portion, the connecting portion extending parallel to the suspension portion and forming a neck for the suspension profile.
Heating apparatus for metal products , able to heat selectively and with the desired heat power one or more edges of said metal product by means of electromagnetic induction, said heating apparatus comprising a magnetic core having a through aperture and at least four polar extensions disposed at equal angles along the perimeter of said through aperture , characterized in that said polar extensions are located on the same lying plane where all the upper ends or all the lower ends of the polar extensions lie, and are connected with each other by connection portions , each of said polar extensions being provided with a corresponding electric coil connected to an independent electric power source able to define on each occasion at least the polarity, frequency and power delivered by said polar extension .
A process of manufacturing a waveguide device comprising the following steps: manufacturing a core by additive manufacturing, said core having sidewalls with external and internal surfaces, the internal surfaces defining a waveguide channel ; depositing a conductive metal layer on the internal surfaces , by immersion in a reagent fluid; wherein said core comprises at least one through hole of constant cross-section between said external and internal surfaces, specifically designed to favour the evacuation of bubbles in said channel and/or fluid circulation during said immersion. manufacturing a core by additive manufacturing, said core having sidewalls with external and internal surfaces, the internal surfaces defining a waveguide channel ; depositing a conductive metal layer on the internal surfaces , by immersion in a reagent fluid;
Method for monitoring a fuel return valve, called FRV , the FRV valve controlling a flow of fuel, used to cool an oil feeding a propulsion engine of an aircraft and an oil of an integrated drive generator, called IDG , from a system for distributing fuel to the propulsion engine to a recirculation system returning hot fuel to a fuel tank of the aircraft , an aperture of the FRV making it possible to increase the flow of fuel circulating in the fuel distribution system, this fuel being colder fuel originating from said fuel tank of the aircraft , a first oil temperature sensor supplying measurements of the temperature of oil at an outlet port of the IDG , a second oil temperature sensor supplying measurements of the temperature of oil feeding the propulsion engine , the method being implemented by an FRV operation monitoring system in the form of electronic circuitry, the method being characterized in that it comprises the following steps: - receiving measurements from the first oil temperature sensor and from the second oil temperature sensor; - determining , for each flight of the aircraft , an oil temperature maximum at the outlet port of the IDG according to the measurements of said first oil temperature sensor and/or an oil temperature maximum of the propulsion engine according to the measurements of said second oil temperature sensor; - assessing a trend of one and/or the other of the oil temperature maxima over several flights; and - generating an alarm flagging a malfunction experienced by the FRV, this malfunction leading to an undesirable closure of the FRV leading to an undesirable temperature rise of the oil used to cool the IDG, when the trend of one and/or the other of the oil temperature maxima shows that a predetermined oil temperature threshold T has been exceeded. - receiving measurements from the first oil temperature sensor and from the second oil temperature sensor; - determining , for each flight of the aircraft , an oil temperature maximum at the outlet port of the IDG according to the measurements of said first oil temperature sensor and/or an oil temperature maximum of the propulsion engine according to the measurements of said second oil temperature sensor; - assessing a trend of one and/or the other of the oil temperature maxima over several flights; and - generating an alarm flagging a malfunction experienced by the FRV, this malfunction leading to an undesirable closure of the FRV leading to an undesirable temperature rise of the oil used to cool the IDG, when the trend of one and/or the other of the oil temperature maxima shows that a predetermined oil temperature threshold T has been exceeded.
A method for transmitting channel state information by a user equipment, UE, in a wireless communication system, the method comprising: receiving channel state information, CSI, configuration information and discontinuous reception, DRX, configuration information from a base station; determining whether a channel quality indicator, CQI, mask is setup by the upper layer; in case that the CQI mask is setup, determining, in a first subframe, whether an on-duration timer is expected to be running in a second subframe, wherein the first subframe precedes the second subframe in time; and in case that the on-duration timer is expected to be running in the second subframe, transmitting channel state information in the second subframe. receiving channel state information, CSI, configuration information and discontinuous reception, DRX, configuration information from a base station; determining whether a channel quality indicator, CQI, mask is setup by the upper layer; in case that the CQI mask is setup, determining, in a first subframe, whether an on-duration timer is expected to be running in a second subframe, wherein the first subframe precedes the second subframe in time; and in case that the on-duration timer is expected to be running in the second subframe, transmitting channel state information in the second subframe.
Carriage arrangement for a sliding leaf of a sliding door or a sliding window, comprising a carriage that is movable relative to a slide rail and an arm operator for connecting the carriage to the sliding leaf, the arm operator having a deployment arm and a control arm in order to move the carriage arrangement in a closing movement from a placement position to a closed position, the control arm being rotatably mounted on the deployment arm and being connected to the carriage via a control pin of the carriage arrangement guided in a guide slot of the carriage arrangement , the control arm , in the region of its rotational mounting on the deployment arm , abutting, in portions, a spring of the carriage arrangement in the placement position, which spring is arranged or formed on the deployment arm so as to hold the control pin , in the placement position, indirectly in a placement portion of the guide slot , the control arm having a spring recess for extending its swivel angle on the deployment arm in the region of its rotational mounting on the deployment arm , in which recess the spring engages in the placement position in portions, and the spring is arranged in a spring slot in the deployment arm in portions, the control arm having a contact projection in the region of its rotational mounting on the deployment arm , which projection abuts the spring in the placement position in portions, the spring being in the form of a leaf spring, characterized in that the control arm is arranged at least in portions in the closed position in a stepped control arm recess on an outer side of the deployment arm , the control arm being straight in design.
An electrostatic chuck, comprising: a thermally conductive layer configured to carry a wafer and provided therein with a heating element ; and a heat insulating layer group disposed below the thermally conductive layer and configured to control a temperature of a bottom of the heat insulating layer group within a set range; and the heat insulating layer group comprises at least two heat insulating layers , which are sequentially arranged from top to bottom in descending order of thermal conductivity coefficient; both a material of the thermally conductive layer and a material of an uppermost heat insulating layer of the at least two heat insulating layers comprise aluminum nitride, and the thermally conductive layer and the uppermost heat insulating layer are connected into an integral body by sintering; at least one of the thermally conductive layer and the uppermost heat insulating layer is doped with at least one trace element in a predetermined proportion, so that a thermal conductivity coefficient of the uppermost heat insulating layer is less than a thermal conductivity coefficient of the thermally conductive layer; and a material of a lowermost heat insulating layer of the at least two heat insulating layers comprises quartz. a thermally conductive layer configured to carry a wafer and provided therein with a heating element ; and a heat insulating layer group disposed below the thermally conductive layer and configured to control a temperature of a bottom of the heat insulating layer group within a set range; and the heat insulating layer group comprises at least two heat insulating layers , which are sequentially arranged from top to bottom in descending order of thermal conductivity coefficient;