mhurhangee/patent-ind-claim-en huggingface dataset:
A hub for a wind turbine , comprising: a hub body having a first blade bearing flange , a second blade bearing flange and a main bearing flange , wherein a first portion of the hub body is arranged adjacent to the main bearing flange and between the first blade bearing flange and the second blade bearing flange and a second portion of the hub body is arranged adjacent to the main bearing flange and between the first blade bearing flange and the second blade bearing flange , wherein the first blade bearing flange or the second blade bearing flange is arranged between the first portion and the second portion , and a stiffening structure stiffening the first portion and the second portion of the hub body , wherein the stiffening structure connects the first portion and the second portion and spans from the first portion to the second portion such that an opening is formed between the stiffening structure and the hub body , and characterized in that the stiffening structure comprises at least two reinforcing elements joined to each other. a hub body having a first blade bearing flange , a second blade bearing flange and a main bearing flange , wherein a first portion of the hub body is arranged adjacent to the main bearing flange and between the first blade bearing flange and the second blade bearing flange and a second portion of the hub body is arranged adjacent to the main bearing flange and between the first blade bearing flange and the second blade bearing flange , wherein the first blade bearing flange or the second blade bearing flange is arranged between the first portion and the second portion , and a stiffening structure stiffening the first portion and the second portion of the hub body , wherein the stiffening structure connects the first portion and the second portion and spans from the first portion to the second portion such that an opening is formed between the stiffening structure and the hub body , and characterized in that the stiffening structure comprises at least two reinforcing elements joined to each other.
A method for the creation of a visual iridescent effect on the surface of a part , whereby laser beams having a pulse duration of less than one nanosecond are sent onto said surface, characterized in that in the juxtaposed optical fields of the focusing systems of at least two fixed devices, or in the field of at least one mobile device, said device(s) each comprising a laser source , a scanner and said focusing system for applying a structure in the form of wavelets to said surface over the width of said pulse, and scanning of said surface is performed by said scanner(s) by said laser beams along a series of successive lines (5, 6 ; 16, 17, 18, 16', 17', 18') in a relative direction of travel of the part and of the scanner(s) and a series of lines lying in the continuation of each other in a direction perpendicular to said relative direction of travel , and each belonging to the optical field of the device(s), each line (5, 6; 16, 17, 18, 16', 17', 18') having a width equal to the diameter of said pulse, said optical fields of two fixed juxtaposed devices or the optical fields corresponding to two successive positions of said mobile device overlap in an overlapping area of width between twice the diameter of the pulse of the laser beam and 2 cm, so that two lines lying in the continuation of each other overlap at a junction , and in that between two series of successive lines (5, 6; 16, 17, 18, 16', 17', 18') in a relative direction of travel of the part and of the scanner(s) , said junction zones are arranged randomly or periodically organized in a random pattern with periodicity equal to at least ten times the maximum value of the offset between the junctions on two successive lines (5, 6; 16, 16', 17, 17', 18, 18') in said relative direction of travel inside said overlapping area of the optical fields, and in that between the performing of scanning along two successive lines in said relative direction of travel of the part and of the scanner(s) , the polarization of the laser beam is modified to create wavelets of different orientations on said two successive lines and of common two-by-two orientation in the direction perpendicular to the relative direction of travel .
A method for flexible bearer handling in a communications network, the method being performed by a network node , comprising the steps of: acquiring (S102) packet data convergence protocol, PDCP, protocol data units, PDUs carrying first signal radio bearers, SRB1, second signal radio bearers, SRB2, and data radio bearers, DRB; encapsulating (S104) individual PDCP PDUs into individual frames at at least one protocol layer above a bottom-most protocol layer, wherein each frame comprises a first signal radio bearer, SRB1, a second signal radio bearer, SRB2, or a data radio bearer, DRB; and switching (S106) said individual frames towards a packet switched network, wherein the step of individually switching comprises: forwarding (S106b) said individual frames comprising the SRB1 to a radio resource control, RRC, acting-entity in the network; forwarding (S106c) said individual frames comprising the SRB2 to an S1-AP and non access stratum, NAS, acting-entity in the network; and forwarding (S106d) said individual frames comprising the DRB to a serving gateway, SGW, acting entity in the network. acquiring (S102) packet data convergence protocol, PDCP, protocol data units, PDUs carrying first signal radio bearers, SRB1, second signal radio bearers, SRB2, and data radio bearers, DRB; encapsulating (S104) individual PDCP PDUs into individual frames at at least one protocol layer above a bottom-most protocol layer, wherein each frame comprises a first signal radio bearer, SRB1, a second signal radio bearer, SRB2, or a data radio bearer, DRB; and switching (S106) said individual frames towards a packet switched network, wherein the step of individually switching comprises: forwarding (S106b) said individual frames comprising the SRB1 to a radio resource control, RRC, acting-entity in the network; forwarding (S106c) said individual frames comprising the SRB2 to an S1-AP and non access stratum, NAS, acting-entity in the network; and forwarding (S106d) said individual frames comprising the DRB to a serving gateway, SGW, acting entity in the network. forwarding (S106b) said individual frames comprising the SRB1 to a radio resource control, RRC, acting-entity in the network; forwarding (S106c) said individual frames comprising the SRB2 to an S1-AP and non access stratum, NAS, acting-entity in the network; and forwarding (S106d) said individual frames comprising the DRB to a serving gateway, SGW, acting entity in the network.
Extendable apparatus , for a drill head , comprising - a base section and a drive section ; - an extension section and a functional section ; - the base section and the drive section being moveable with respect to the extension section and the functional section along a longitudinal axis (LA); characterized in - the drive section and the functional section being rotationally rigidly coupled to each other; - the base section and the extension section being rotationally rigidly coupled to each other; - the drive section and the functional section being rotationally movably coupled to the extension section . - a base section and a drive section ; - an extension section and a functional section ; - the base section and the drive section being moveable with respect to the extension section and the functional section along a longitudinal axis (LA); - the drive section and the functional section being rotationally rigidly coupled to each other; - the base section and the extension section being rotationally rigidly coupled to each other; - the drive section and the functional section being rotationally movably coupled to the extension section .
A method for providing a signal quality degree associated with an analyte value measured in a continuous monitoring system , the method comprising the steps of: a) receiving a measured analyte value from a biosensor , wherein the biosensor is adapted for measuring the analyte values , and wherein the biosensor is comprised in a continuous monitoring system or controlled by the continuous monitoring system ; b) determining at least two impact parameters , wherein each of the impact parameters is influenced by an operational status of the continuous monitoring system , and wherein each of the impact parameters is capable of exerting an influence on a signal quality of the biosensor , wherein the at least two impact parameters are selected from at least one element of a covariance matrix of a Kalman filter and at least one of: - the current rate of change; - the current potential of a counter electrode; - the current wear time of the biosensor ; - a time passed since the last calibration of the biosensor ; and - a sensitivity and/or an admittance of the biosensor , wherein the influence of each of the impact parameters on the signal quality of the biosensor is expressed by a weight being assigned to each of the impact parameters ; and c) determining the signal quality degree associated with the measured analyte value by combining the weights and the corresponding impact parameters ; and providing the signal quality degree associated with the analyte value . a) receiving a measured analyte value from a biosensor , wherein the biosensor is adapted for measuring the analyte values , and wherein the biosensor is comprised in a continuous monitoring system or controlled by the continuous monitoring system ; b) determining at least two impact parameters , wherein each of the impact parameters is influenced by an operational status of the continuous monitoring system , and wherein each of the impact parameters is capable of exerting an influence on a signal quality of the biosensor , wherein the at least two impact parameters are selected from at least one element of a covariance matrix of a Kalman filter and at least one of: - the current rate of change; - the current potential of a counter electrode; - the current wear time of the biosensor ; - a time passed since the last calibration of the biosensor ; and - a sensitivity and/or an admittance of the biosensor , wherein the influence of each of the impact parameters on the signal quality of the biosensor is expressed by a weight being assigned to each of the impact parameters ; and - the current rate of change; - the current potential of a counter electrode; - the current wear time of the biosensor ; - a time passed since the last calibration of the biosensor ; and - a sensitivity and/or an admittance of the biosensor , c) determining the signal quality degree associated with the measured analyte value by combining the weights and the corresponding impact parameters ; and providing the signal quality degree associated with the analyte value .
A method for marking at least one portion of a surface of an object, said surface being made of a material that is paper, cardboard or fabric, the method comprising the following steps: - heating the surface of the material by means of a heat source to a temperature lower than a temperature at which the visual appearance of the material changes; - marking the heated surface by means of a marking laser, so that the light beam of the laser raises the temperature on the surface of the material enough to change the visual appearance of said surface; characterised in that the marking laser is a laser with a light beam that belongs to the visible or ultraviolet spectrum, and in that the heat source used in the heating step is an infrared laser. - heating the surface of the material by means of a heat source to a temperature lower than a temperature at which the visual appearance of the material changes; - marking the heated surface by means of a marking laser, so that the light beam of the laser raises the temperature on the surface of the material enough to change the visual appearance of said surface;
A foldable electronic device comprising: a first portion ; a second portion ; a spine having a hinge connecting the first portion and the second portion, the hinge configured to allow pivoting movement of the first portion relative to the second portion, the hinge having a hinge force; one or more magnets coupled to the first portion; and a plurality of metal members coupled to the second portion, characterized in that each metal member of the plurality of metal members is configured for individual removal from the second portion to define a magnetic force corresponding to the hinge force such that the first and second portions remain closed in a spine supported position with the first and second portions supported on the spine, and are separable in a table supported position with the first portion moving and the second portion supported on a surface and remaining stationary and on the surface in response to an opening force applied to the first portion. a first portion ; a second portion ; a spine having a hinge connecting the first portion and the second portion, the hinge configured to allow pivoting movement of the first portion relative to the second portion, the hinge having a hinge force; one or more magnets coupled to the first portion; and a plurality of metal members coupled to the second portion, characterized in that each metal member of the plurality of metal members is configured for individual removal from the second portion to define a magnetic force corresponding to the hinge force such that the first and second portions remain closed in a spine supported position with the first and second portions supported on the spine, and are separable in a table supported position with the first portion moving and the second portion supported on a surface and remaining stationary and on the surface in response to an opening force applied to the first portion.
An unmanned aerial vehicle (UAV), comprising: one or more propulsion units configured to generate lift for the UAV; a central body comprising a first body portion and a second body portion , wherein the first body portion is configured to move translationally relative to the second body portion to transform the central body between a first configuration and a second configuration; and a plurality of arms extending away from the central body , each of the plurality of arms being configured to couple to one or more of the propulsion units , wherein the plurality of arms comprises a first plurality of arms and a second plurality of arms , wherein the first plurality of arms extends from the first body portion and the second plurality of arms extends from the second body portion wherein in the first configuration, the first body portion is positioned above the second body portion of the unmanned aerial vehicle such that all portions of the first body portion are being above all portions of the second body portion . one or more propulsion units configured to generate lift for the UAV; a central body comprising a first body portion and a second body portion , wherein the first body portion is configured to move translationally relative to the second body portion to transform the central body between a first configuration and a second configuration; and a plurality of arms extending away from the central body , each of the plurality of arms being configured to couple to one or more of the propulsion units , wherein the plurality of arms comprises a first plurality of arms and a second plurality of arms , wherein the first plurality of arms extends from the first body portion and the second plurality of arms extends from the second body portion wherein in the first configuration, the first body portion is positioned above the second body portion of the unmanned aerial vehicle such that all portions of the first body portion are being above all portions of the second body portion .
A root canal treatment apparatus comprising: a handpiece configured to hold a cutting tool in a head in a drivable manner; a drive portion configured to drive the cutting tool , with rotation in a direction in which the cutting tool cuts an object to be cut being defined as forward rotation and rotation in a direction opposite to the forward rotation being defined as reverse rotation; a root canal length measurement portion configured to electrically detect a position of a tip end of the cutting tool in a root canal, using the cutting tool as a measuring electrode; and a control portion configured to control the drive portion so as to perform drive for forwardly rotating the cutting tool or perform drive for forwardly rotating and reversely rotating the cutting tool until the position of the tip end of the cutting tool reaches a predetermined set position and further so as to perform drive for reversely rotating the cutting tool by a predetermined set angle, wherein the set angle is any one of angles ranging from 30 degrees to 720 degrees, when the position of the tip end of the cutting tool detected by the root canal length measurement portion reaches the predetermined set position, and then, stopping rotation so as to enable to pull the cutting tool out of the root canal, the root canal treatment apparatus further comprising a load detector configured to detect a load applied to the cutting tool , characterized in that the control portion changes the set angle in accordance with the load detected by the load detector . a handpiece configured to hold a cutting tool in a head in a drivable manner; a drive portion configured to drive the cutting tool , with rotation in a direction in which the cutting tool cuts an object to be cut being defined as forward rotation and rotation in a direction opposite to the forward rotation being defined as reverse rotation; a root canal length measurement portion configured to electrically detect a position of a tip end of the cutting tool in a root canal, using the cutting tool as a measuring electrode; and a control portion configured to control the drive portion so as to perform drive for forwardly rotating the cutting tool or perform drive for forwardly rotating and reversely rotating the cutting tool until the position of the tip end of the cutting tool reaches a predetermined set position and further so as to perform drive for reversely rotating the cutting tool by a predetermined set angle, wherein the set angle is any one of angles ranging from 30 degrees to 720 degrees, when the position of the tip end of the cutting tool detected by the root canal length measurement portion reaches the predetermined set position, and then, stopping rotation so as to enable to pull the cutting tool out of the root canal, the root canal treatment apparatus further comprising a load detector configured to detect a load applied to the cutting tool , characterized in that the control portion changes the set angle in accordance with the load detected by the load detector .
A composite sliding bearing comprising: an inner ring , formed of split structure ring bodies halved by a center in an axial direction, which has V-section inclined surfaces formed on the outer diameter surfaces of the ring bodies ; bearing pads that are disposed separated on the inclined surfaces of the ring bodies along the outer diameter surface of the inner ring ; an outer ring on the inner diameter surface of which is formed a V-section umbrella-shaped inclined surface corresponding to the outer diameter surface of the inner ring ; a radial load and axial load applied to the bearing are supported by sliding the inner diameter surface of the outer ring on the sliding surfaces of the bearing pads in a condition in which the bearing pads are fluid lubricated; and an oil supply groove is cut in a central portion of the inner diameter surface of the inner ring and is configured to receive lubricating oil from an oil reservoir portion of a lubricating oil supply system, and oil supply holes , communicating with the oil supply groove , which pass through the inner ring in a radial direction are bored in the inner ring, thus being configured to supplying lubricating oil from the oil supply groove via the oil supply holes to the sliding surfaces of the bearing pads on which the outer ring slides; the bearing being characterized in that the bearing pads are fixed to the outer diameter surface of the inner ring . an inner ring , formed of split structure ring bodies halved by a center in an axial direction, which has V-section inclined surfaces formed on the outer diameter surfaces of the ring bodies ; bearing pads that are disposed separated on the inclined surfaces of the ring bodies along the outer diameter surface of the inner ring ; an outer ring on the inner diameter surface of which is formed a V-section umbrella-shaped inclined surface corresponding to the outer diameter surface of the inner ring ; a radial load and axial load applied to the bearing are supported by sliding the inner diameter surface of the outer ring on the sliding surfaces of the bearing pads in a condition in which the bearing pads are fluid lubricated; and an oil supply groove is cut in a central portion of the inner diameter surface of the inner ring and is configured to receive lubricating oil from an oil reservoir portion of a lubricating oil supply system, and oil supply holes , communicating with the oil supply groove , which pass through the inner ring in a radial direction are bored in the inner ring, thus being configured to supplying lubricating oil from the oil supply groove via the oil supply holes to the sliding surfaces of the bearing pads on which the outer ring slides; the bearing being characterized in that the bearing pads are fixed to the outer diameter surface of the inner ring .
A network bandwidth management method, performed by a terminal device, comprising: detecting that a first application in the terminal device is accessing a network; characterized by , acquiring a request of a second application for accessing the network, wherein the first application is a game application , the request comprises a second network bandwidth and a network bandwidth requested by the second application, and the second network bandwidth is a smallest network bandwidth required by the second application; parsing the request of the second application for accessing the network to acquire a network bandwidth requested by the second application; comparing a presently unoccupied first network bandwidth of the terminal device with the network bandwidth requested by the second application to determine whether the first network bandwidth is sufficient for the second application; when the first network bandwidth is insufficient for the second application, detecting whether a target application list comprises the second application; when the target application list comprises the second application, allocating the second network bandwidth to the second application for use, wherein the second network bandwidth is smaller than the first network bandwidth . detecting that a first application in the terminal device is accessing a network; characterized by , acquiring a request of a second application for accessing the network, wherein the first application is a game application , the request comprises a second network bandwidth and a network bandwidth requested by the second application, and the second network bandwidth is a smallest network bandwidth required by the second application; parsing the request of the second application for accessing the network to acquire a network bandwidth requested by the second application; comparing a presently unoccupied first network bandwidth of the terminal device with the network bandwidth requested by the second application to determine whether the first network bandwidth is sufficient for the second application; when the first network bandwidth is insufficient for the second application, detecting whether a target application list comprises the second application; when the target application list comprises the second application, allocating the second network bandwidth to the second application for use, wherein the second network bandwidth is smaller than the first network bandwidth .