mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by a first base station from a second base station , a second message comprising a second radio access network, RAN, area identifier of the second base station; transmitting, by the first base station to a wireless device , at least one third message comprising a first RAN area identifier associated with a first cell of the first base station, wherein the at least one third message indicates a state transition of the wireless device to a radio resource control inactive state; receiving, by the first base station, one or more packets for the wireless device; and transmitting, by the first base station to the second base station and in response to receiving the one or more packets, a RAN paging message when the first RAN area identifier is identical to the second RAN area identifier, wherein the RAN paging message comprises an identifier of the wireless device and the first RAN area identifier. receiving, by a first base station from a second base station , a second message comprising a second radio access network, RAN, area identifier of the second base station; transmitting, by the first base station to a wireless device , at least one third message comprising a first RAN area identifier associated with a first cell of the first base station, wherein the at least one third message indicates a state transition of the wireless device to a radio resource control inactive state; receiving, by the first base station, one or more packets for the wireless device; and transmitting, by the first base station to the second base station and in response to receiving the one or more packets, a RAN paging message when the first RAN area identifier is identical to the second RAN area identifier, wherein the RAN paging message comprises an identifier of the wireless device and the first RAN area identifier.
A system for monitoring operation of a wind turbine including a rotor having a blade , wherein the rotor rotates in a rotor plane having a plurality of sectors (304-307), the system comprising: one or more processors ; and a memory coupled to the one or more processors and including program code that, when executed by the one or more processors , causes the system to: receive a time-domain signal indicative of a pitch force being applied to the blade ; determine a first spectral density of the time-domain signal by sampling the time-domain signal to generate a discrete time-domain signal, selecting a plurality of samples from the discrete time-domain signal that are within a sampling window ( S ( t )) and transforming the plurality of samples from a time-domain to a frequency-domain; determine a condition of the wind turbine based on a frequency content of the first spectral density ; and in response to the condition being indicative of a problem with the wind turbine , generate an alarm signal, wherein the sampling window ( S ( t )) corresponds to a first period of time when the blade is in a selected sector of the plurality of sectors (304-307). one or more processors ; and a memory coupled to the one or more processors and including program code that, when executed by the one or more processors , causes the system to: receive a time-domain signal indicative of a pitch force being applied to the blade ; determine a first spectral density of the time-domain signal by sampling the time-domain signal to generate a discrete time-domain signal, selecting a plurality of samples from the discrete time-domain signal that are within a sampling window ( S ( t )) and transforming the plurality of samples from a time-domain to a frequency-domain; determine a condition of the wind turbine based on a frequency content of the first spectral density ; and in response to the condition being indicative of a problem with the wind turbine , generate an alarm signal, wherein the sampling window ( S ( t )) corresponds to a first period of time when the blade is in a selected sector of the plurality of sectors (304-307). receive a time-domain signal indicative of a pitch force being applied to the blade ; determine a first spectral density of the time-domain signal by sampling the time-domain signal to generate a discrete time-domain signal, selecting a plurality of samples from the discrete time-domain signal that are within a sampling window ( S ( t )) and transforming the plurality of samples from a time-domain to a frequency-domain; determine a condition of the wind turbine based on a frequency content of the first spectral density ; and in response to the condition being indicative of a problem with the wind turbine , generate an alarm signal, wherein the sampling window ( S ( t )) corresponds to a first period of time when the blade is in a selected sector of the plurality of sectors (304-307).
A polyester comprising at least one crosslinkable moiety, each crosslinkable moiety including at least one crosslinkable pendent group, wherein a ratio of a total number of the at least one crosslinkable pendent groups to a total number of ester groups in the polyester is in a range of 0.0001 to 0.5, wherein the polyester has a glass transition temperature determined by differential scanning calorimetry of less than 0°C, and wherein each moiety has the formula: wherein R1 is -O-, -(CH 2 ) n -, -COO-, -OCO-, -OOC-, -S-, or -(C=O)-; R2 is -OH, -COOH, or -R2'-, wherein -R2'- is -O-, -COO-, -(CH 2 ) n -, -(C=O)-, or -S-; R3 is -H, -CH 3 , -OH, -CH2OH, -(CH 2 ) m -CH 3 , -SO3Na, or -COONa; R4 is -O-, -COO-, -(CH 2 ) p -, -(C=O)-, or -S-; and n, m and p are positive integers. R1 is -O-, -(CH 2 ) n -, -COO-, -OCO-, -OOC-, -S-, or -(C=O)-; R2 is -OH, -COOH, or -R2'-, wherein -R2'- is -O-, -COO-, -(CH 2 ) n -, -(C=O)-, or -S-; R3 is -H, -CH 3 , -OH, -CH2OH, -(CH 2 ) m -CH 3 , -SO3Na, or -COONa; R4 is -O-, -COO-, -(CH 2 ) p -, -(C=O)-, or -S-; and n, m and p are positive integers.
An electrical connector for making electrical contact with at least one lead of an electronic device , comprising: a mounting flange portion ; a connector housing portion that extends along a center axis from the mounting flange portion , wherein a connector hole extends through the connector housing and mounting flange portions; at least one conductor having a pin end and a terminal end , wherein the terminal end includes a lead opening that receives the lead and a fastener hole oriented substantially transverse to the lead opening and wherein a fastening element engages the fastener hole and contacts the lead to form electrical contact between the conductor and the lead ; and a conductor carrier extending through the connector hole , wherein the conductor carrier is held within the connector housing and mounting flange by an interference fit and wherein the conductor carrier includes a base portion and at least one extended portion that extends from the base portion to form a staggered arrangement wherein the base and extended portions each include a plurality of channels and wherein each channel includes a conductor . a mounting flange portion ; a connector housing portion that extends along a center axis from the mounting flange portion , wherein a connector hole extends through the connector housing and mounting flange portions; at least one conductor having a pin end and a terminal end , wherein the terminal end includes a lead opening that receives the lead and a fastener hole oriented substantially transverse to the lead opening and wherein a fastening element engages the fastener hole and contacts the lead to form electrical contact between the conductor and the lead ; and a conductor carrier extending through the connector hole , wherein the conductor carrier is held within the connector housing and mounting flange by an interference fit and wherein the conductor carrier includes a base portion and at least one extended portion that extends from the base portion to form a staggered arrangement wherein the base and extended portions each include a plurality of channels and wherein each channel includes a conductor .
Aircraft structure having a surface (F) on which is fixed a sensor comprising at least one transducer , configured to convert a physical characteristic into at least one signal, and at least one conductive element configured to convey said signal, said sensor being linked to the structure by a joining system , the joining system comprising at least one chamber in which said at least one transducer is positioned, at least one passage configured to allow at least one conductive element to pass through the chamber , at least one flexible link linking each transducer present in the chamber to said chamber and at least one binder ensuring a join between the chamber and the structure , the chamber comprising a flexible lattice openwork cage which has an outer surface and meshes with dimensions limiting the penetration of the binder into the lattice openwork cage , the binder covering the outer surface of the lattice openwork cage .
A urine deflector to deflect urine emanating from a user seated on a toilet seat, wherein said urine deflector comprises: a urine deflector body portion sized and shaped to contain and direct a flow of said urine emanating from said user in a generally downwardly direction when said deflector is positioned in front of said user's genitals, said deflector body portion being curved and comprising a urine guide element that is elongated and curved in shape to allow there to be a side portion between the user and the deflector ; at least one wing-shaped retaining projection extending laterally from said urine deflector body portion , said at least one wing-shaped retaining projection being configured to be positionable and holdable in between a medial aspect of the user's leg and said toilet seat so as to hold the urine deflector in position and prevent said flow of urine from escaping beyond said urine deflector in any direction except downwardly; wherein the wing-shaped retaining projections are flexible to conform to a surface of the toilet seat for the comfort of the user; wherein the urine deflector comprises notches formed at a base of each of the at least one wing-shaped retaining projections to enhance flexibility of the connection of the at least one wing-shaped retaining projections to the urine deflector ; and wherein the urine deflector comprises no attachment means for attaching the urine deflector to the toilet seat. a urine deflector body portion sized and shaped to contain and direct a flow of said urine emanating from said user in a generally downwardly direction when said deflector is positioned in front of said user's genitals, said deflector body portion being curved and comprising a urine guide element that is elongated and curved in shape to allow there to be a side portion between the user and the deflector ; at least one wing-shaped retaining projection extending laterally from said urine deflector body portion , said at least one wing-shaped retaining projection being configured to be positionable and holdable in between a medial aspect of the user's leg and said toilet seat so as to hold the urine deflector in position and prevent said flow of urine from escaping beyond said urine deflector in any direction except downwardly; wherein the wing-shaped retaining projections are flexible to conform to a surface of the toilet seat for the comfort of the user; wherein the urine deflector comprises notches formed at a base of each of the at least one wing-shaped retaining projections to enhance flexibility of the connection of the at least one wing-shaped retaining projections to the urine deflector ; and wherein the urine deflector comprises no attachment means for attaching the urine deflector to the toilet seat.
An aseptic blow molding machine comprising at least a molding unit that performs blow molding of a preform into a bottle , and a driving unit that drives the molding unit , wherein the molding unit includes at least a mold , a blow nozzle , a valve block , and an extension rod , the molding unit is covered by a molding unit chamber , the molding unit chamber consists of a movable unit that holds the molding unit , isolates the molding unit from the driving unit and is rotated about a rotating pipe , and a fixed unit that covers the molding unit from an outside air, and a sterilizing apparatus that sterilizes an inside and an inner surface of the molding unit chamber is provided. the molding unit includes at least a mold , a blow nozzle , a valve block , and an extension rod , the molding unit is covered by a molding unit chamber , the molding unit chamber consists of a movable unit that holds the molding unit , isolates the molding unit from the driving unit and is rotated about a rotating pipe , and a fixed unit that covers the molding unit from an outside air, and a sterilizing apparatus that sterilizes an inside and an inner surface of the molding unit chamber is provided.
An environment-friendly material, comprising: 60 to 80 wt% of inorganic mineral pellet, said inorganic mineral pellet comprising calcium carbonate and polyethylene or polypropylene, wherein a weight ratio of the calcium carbonate and the polyethylene or the polypropylene comprised in the inorganic mineral pellet is 8:2; 15 to 35 wt% of polyolefin whose precursor monomer has 2 or 3 carbon atoms on its backbone chain, wherein said polyolefin is linear low density polyethylene, low density polyethylene, medium density polyethylene, high density polyethylene, or polypropylene; 5 to 10 wt% of auxiliary additive, wherein said auxiliary additive is POE, POE-g-MA, or PE-g-MA. 60 to 80 wt% of inorganic mineral pellet, said inorganic mineral pellet comprising calcium carbonate and polyethylene or polypropylene, wherein a weight ratio of the calcium carbonate and the polyethylene or the polypropylene comprised in the inorganic mineral pellet is 8:2; 15 to 35 wt% of polyolefin whose precursor monomer has 2 or 3 carbon atoms on its backbone chain, wherein said polyolefin is linear low density polyethylene, low density polyethylene, medium density polyethylene, high density polyethylene, or polypropylene; 5 to 10 wt% of auxiliary additive, wherein said auxiliary additive is POE, POE-g-MA, or PE-g-MA.
Belt filter, comprising a filter belt which is guided along convex sides by curved belt guides such that it forms a filter trough , comprising a fluid-permeable supporting belt which is arranged on an outer face of the filter belt facing away from the belt guides and on the inner face, facing the belt guides , of which the filter belt rests, and comprising a support which supports the supporting belt on and/or between the belt guides on an outer face facing away from the belt guides , characterised in that the belt filter has an adjusting device by means of which the support can be adjusted transversely to the belt guides .
A method for data provisioning, comprising: receiving , at a serverless computing cluster, a plurality of user defined functions (UDFs) for execution on one or more worker nodes of the serverless computing cluster; determining , via the serverless computing cluster, one or more data locations of a first UDF data needed for the future execution of a first UDF of the plurality of UDFs; receiving , at a master node of the serverless computing cluster, a plurality of worker node tickets, each worker node ticket indicating a resource availability of a corresponding worker node, each worker node ticket including at least one of a current utilization or a current storage availability of the corresponding worker node; analyzing , via the master node, the one or more data locations and the plurality of worker node tickets to determine eligible worker nodes capable of executing the first UDF; transmitting , via the master node, a pre-fetch command to one or more of the eligible worker nodes, the pre-fetch command generated from the determined one or more data locations such that the one or more of the eligible worker nodes become provisioned worker nodes, wherein each provisioned worker node stores a pre-fetched UDF data before the first UDF has been assigned for execution on said provisioned worker nodes; and performing UDF allocation across the provisioned worker nodes, the UDF allocation including allocation of at least the first UDF. receiving , at a serverless computing cluster, a plurality of user defined functions (UDFs) for execution on one or more worker nodes of the serverless computing cluster; determining , via the serverless computing cluster, one or more data locations of a first UDF data needed for the future execution of a first UDF of the plurality of UDFs; receiving , at a master node of the serverless computing cluster, a plurality of worker node tickets, each worker node ticket indicating a resource availability of a corresponding worker node, each worker node ticket including at least one of a current utilization or a current storage availability of the corresponding worker node; analyzing , via the master node, the one or more data locations and the plurality of worker node tickets to determine eligible worker nodes capable of executing the first UDF; transmitting , via the master node, a pre-fetch command to one or more of the eligible worker nodes, the pre-fetch command generated from the determined one or more data locations such that the one or more of the eligible worker nodes become provisioned worker nodes, wherein each provisioned worker node stores a pre-fetched UDF data before the first UDF has been assigned for execution on said provisioned worker nodes; and performing UDF allocation across the provisioned worker nodes, the UDF allocation including allocation of at least the first UDF.
A coated article, comprising: a substrate ; and a coating over at least a portion of the substrate , the coating comprising a first dielectric layer deposited over at least the portion of the substrate ; a first heat and/or radiation reflective metallic layer deposited over the first dielectric layer ; a first primer layer located over the first heat and/or radiation reflective metallic layer , a second dielectric layer located over the first primer layer ; an absorbing multilayer structure located over the second dielectric layer , the absorbing multilayer structure comprising a first absorbing layer, a metallic layer having a subcritical thickness such that the coating material forms isolated, non-connected regions of the coating material, and a second absorbing layer; a third dielectric layer deposited over the absorbing layer ; a third heat and/or radiation reflective metallic layer deposited over the third dielectric layer ; a third primer layer located over the third heat and/or radiation reflective metallic layer ; a fourth dielectric layer located over the third primer layer ; and a protective overcoat located over the fourth dielectric layer . a substrate ; and a coating over at least a portion of the substrate , the coating comprising a first dielectric layer deposited over at least the portion of the substrate ; a first heat and/or radiation reflective metallic layer deposited over the first dielectric layer ; a first primer layer located over the first heat and/or radiation reflective metallic layer , a second dielectric layer located over the first primer layer ; an absorbing multilayer structure located over the second dielectric layer , the absorbing multilayer structure comprising a first absorbing layer, a metallic layer having a subcritical thickness such that the coating material forms isolated, non-connected regions of the coating material, and a second absorbing layer; a third dielectric layer deposited over the absorbing layer ; a third heat and/or radiation reflective metallic layer deposited over the third dielectric layer ; a third primer layer located over the third heat and/or radiation reflective metallic layer ; a fourth dielectric layer located over the third primer layer ; and a protective overcoat located over the fourth dielectric layer .
An apparatus for assessing the orientation of an acetabular landmark or an acetabular implant, comprising: a handling device comprising a proximal end with a handle, a distal end , and an elongate member extending therebetween; an anatomical contact component coupled with the distal end of the handling device; and a surgical orientation device configured for detecting and recording an orientation of the acetabular landmark or the acetabular implant, characterised in that the surgical orientation device comprises one or more sensors capable of determining distance measurements, wherein a sensor located in the surgical orientation device is configured to be in electrical communication with an emitter element , wherein an electrical control unit of the surgical orientation device is configured to determine the distance between the sensor and the emitter element corresponding to a distance to an anatomical landmark. a handling device comprising a proximal end with a handle, a distal end , and an elongate member extending therebetween; an anatomical contact component coupled with the distal end of the handling device; and a surgical orientation device configured for detecting and recording an orientation of the acetabular landmark or the acetabular implant, characterised in that the surgical orientation device comprises one or more sensors capable of determining distance measurements, wherein a sensor located in the surgical orientation device is configured to be in electrical communication with an emitter element , wherein an electrical control unit of the surgical orientation device is configured to determine the distance between the sensor and the emitter element corresponding to a distance to an anatomical landmark.
A method of forming a component for a heat exchanger , the method comprising machining a portion of a metal sheet to form a plurality of protrusions ; and then forming apertures in the portion of the metal sheet so as to form a plurality of ribs defined by adjacent ones of the apertures ; wherein at least one protrusion is located on each of said ribs characterised by comprising machining the portion of the metal sheet to form the plurality of protrusions prior to forming the apertures in the portion of the metal sheet so as to form the ribs.
A liquid ejecting device comprising: an ejecting unit configured to eject a liquid onto a medium; a detector configured to emit light toward an object opposing the ejecting unit and receive reflected light generated by reflection of the light thereby detecting information; and a cover portion including a cover that transmits the light and is disposed at a position to cover the detector , wherein the cover portion is configured to move the cover so as to change a portion of the cover that covers the detector while the detector remains covered, characterized in that the cover portion is configured to rotate the cover to change the portion of the cover that covers the detector while the detector remains covered. an ejecting unit configured to eject a liquid onto a medium; a detector configured to emit light toward an object opposing the ejecting unit and receive reflected light generated by reflection of the light thereby detecting information; and a cover portion including a cover that transmits the light and is disposed at a position to cover the detector , wherein the cover portion is configured to move the cover so as to change a portion of the cover that covers the detector while the detector remains covered, characterized in that the cover portion is configured to rotate the cover to change the portion of the cover that covers the detector while the detector remains covered.