mhurhangee/patent-ind-claim-en huggingface dataset:
A sluice gate comprising a gate body mounted in a direction vertical to a sluice connected to the sea, stored within a storage space on the bottom of the water when in an opened state, and rising from said storage space to move to a position vertical to said sluice when in a closed state, wherein said gate body has a torsion type structure with a thin wall closed cross section and a cross sectional restriction wherein the vertical cross section of said gate body is restricted by a point , and said gate body , when in said closed state , comprises the cross sectional restriction point wherein said thin wall closed cross section withstands high tide pressure, and a reaction roller contacting an inner face of said storage space to withstand tide flow pressure, wherein said reaction roller is an opening and closing operation type, wherein said reaction roller is constructed to open an interval between a concrete wall and the gate body at construction or maintenance period by a rotation of the reaction roller in a vertical plane around a rotation axle , or by rotation in a horizontal plane, or by parallel shift in a horizontal plane. said gate body has a torsion type structure with a thin wall closed cross section and a cross sectional restriction wherein the vertical cross section of said gate body is restricted by a point , and said gate body , when in said closed state , comprises the cross sectional restriction point wherein said thin wall closed cross section withstands high tide pressure, and a reaction roller contacting an inner face of said storage space to withstand tide flow pressure, wherein said reaction roller is an opening and closing operation type, wherein said reaction roller is constructed to open an interval between a concrete wall and the gate body at construction or maintenance period by a rotation of the reaction roller in a vertical plane around a rotation axle , or by rotation in a horizontal plane, or by parallel shift in a horizontal plane.
Device for moving an object comprising at least a substrate through an open side of a processing station (1a,b) of a processing apparatus, the device comprising: at least one support , placeable at the processing station (1a,b), at least one carrier (27a,b), each guided for movement relative to the support(s) along a respective path predominantly directed in parallel to a reference axis (z) in a reference co-ordinate system; at least one device (29a,b,30a,b,31a,b) for controlling the movement of at least one of the carriers (27a,b) and driving the movement in at least one of opposite directions along the path; a component for holding the object; and a suspension mechanism with which the holding component is connected to the at least one carrier (27a,b), wherein the suspension mechanism is arranged to guide movement of the holding component relative to the at least one carrier (27a,b) along a holding component path, and wherein the device is arranged to drive the movement of the holding component in at least one direction along the holding component path, characterised in that the holding component path is predominantly directed in parallel to the reference axis (z). at least one support , placeable at the processing station (1a,b), at least one carrier (27a,b), each guided for movement relative to the support(s) along a respective path predominantly directed in parallel to a reference axis (z) in a reference co-ordinate system; at least one device (29a,b,30a,b,31a,b) for controlling the movement of at least one of the carriers (27a,b) and driving the movement in at least one of opposite directions along the path; a component for holding the object; and a suspension mechanism with which the holding component is connected to the at least one carrier (27a,b), wherein the suspension mechanism is arranged to guide movement of the holding component relative to the at least one carrier (27a,b) along a holding component path, and wherein the device is arranged to drive the movement of the holding component in at least one direction along the holding component path, characterised in that the holding component path is predominantly directed in parallel to the reference axis (z).
Process for the production of carbon fibers from cellulose fibers, characterized in that cellulose fibers, which contain a sulphonic acid salt of formula I wherein R 1 represents a hydrocarbon group and K + represents a cation, are converted into carbon fibers, wherein the cellulose fiber contains the salt of the sulphonic acid in an amount such that the content of sulfur is from 0.1 to 3 wt%, based on the total weight of the dried cellulose fiber.
A method of manufacturing an article comprising: forming a fluid-filled bladder element from polymeric material; securing an overlay to the polymeric material; wherein at least one portion of the overlay is substantially transparent, and an image on the polymeric material of the fluid-filled bladder element is aligned with the at least one portion of the overlay that is substantially transparent; and assembling the fluid-filled bladder element in the article so that a first portion of the fluid-filled bladder element and the image are exposed to view through the at least one portion of the overlay that is substantially transparent, and a second portion of the fluid-filled bladder element is blocked from view by the article. forming a fluid-filled bladder element from polymeric material; securing an overlay to the polymeric material; wherein at least one portion of the overlay is substantially transparent, and an image on the polymeric material of the fluid-filled bladder element is aligned with the at least one portion of the overlay that is substantially transparent; and assembling the fluid-filled bladder element in the article so that a first portion of the fluid-filled bladder element and the image are exposed to view through the at least one portion of the overlay that is substantially transparent, and a second portion of the fluid-filled bladder element is blocked from view by the article.
Method for evaluating an asymmetric residual stress for a material by an indentation test comprising: applying the residual stresses σ x res and σ y res with uniaxial and symmetrical biaxial tensions on the material and then performing an instrumented indentation test indenting an Knoop indenter on the material; comparing a slope of indentation load-depth curve when the long diagonal direction of the Knoop indenter is perpendicular to the direction of the largest residual stress with that in stress-free state, and then a slope of indentation load-depth curve when the long diagonal direction of the Knoop indenter is parallel to the direction of the largest residual stress with that in stress-free state, so as to evaluate the asymmetric residual stress for the material; determining the ratio of the conversion factor (α ⊥ , α //) which associates the residual stress with the induced indentation load difference from the residual stress according to the uniaxial residual stress and the longer diagonal direction of the asymmetric indenter and which is defined by ΔL 1 = α ⊥ σ res x + α / / σ res y ΔL 2 = α / / σ res x + α ⊥ σ res y whereby ΔL 1 is the difference of loads between the indented state where the long diagonal of the Knoop indenter is perpendicular to the x-axis and stress-free state at the same indentation depth, and ΔL 2 is the difference of loads between the indented state where the long diagonal of the Knoop indenter is parallel to the x-axis and stress-free state at the same indentation depth; and using the conversion factor ratio and the ratio of the induced indentation load differences (Δ L 1 and Δ L 2 ) when the long diagonal direction of the Knoop indenter in the biaxial residual stress state is perpendicular or parallel to the direction of the largest residual stress, then to determine the stress directionality (p).
A computer-implemented method comprising: identifying , by one or more computing devices internal to a vehicle, a time when a traffic signal light will turn from yellow to red; estimating , by the one or more computing devices, a location of a vehicle at the identified time that a traffic signal light will turn from yellow to red; identifying , by the one or more computing devices, a starting marker at an intersection associated with a traffic signal light; determining , by the one or more computing devices, whether the estimated location of the vehicle will be at least a threshold distance past the starting marker into the intersection; the method characterised by comprising: when the estimated location of the vehicle is determined to be within the intersection and at least a threshold distance past the starting marker into the intersection, determining , by the one or more computing devices, that the vehicle should continue through the intersection. identifying , by one or more computing devices internal to a vehicle, a time when a traffic signal light will turn from yellow to red; estimating , by the one or more computing devices, a location of a vehicle at the identified time that a traffic signal light will turn from yellow to red; identifying , by the one or more computing devices, a starting marker at an intersection associated with a traffic signal light; determining , by the one or more computing devices, whether the estimated location of the vehicle will be at least a threshold distance past the starting marker into the intersection;
Gluing device for gluing particles which are provided for the production of pressed boards, in particular material boards made of wood and/or other renewable agricultural products such as particleboard, fiberboard, strawboard and chipboard, as well as plastic boards, having a central channel for guiding transport air and particles and having at least one glue nozzle for gluing the particles and having at least two particle feed channels for feeding the particles , which open into the central channel on opposite sides with respect to an imaginary central channel center plane of the central channel , and wherein at least one feed channel extends parallel or slightly obliquely to the central flow direction at least in the region of its orifice into the central channel and the central channel has a rectangular or square cross-section at least in an orifice region into which the feed channels open, characterized in that the gluing device comprises at least two nozzle air feed channels for feeding nozzle air , which open into the central channel behind the particle feed channels on opposite sides thereof in the central flow direction of the transport air in the central channel , and at least two protective air feed channels for feeding protective air , which open into the central channel behind the nozzle air feed channels on opposite sides thereof in the central flow direction , wherein at least one glue nozzle for introducing glue into the central channel is arranged behind the respective orifices of the nozzle air feed channels and upstream of the respective orifices of the protective air feed channels , as viewed in the central flow direction . and having at least two particle feed channels for feeding the particles , which open into the central channel on opposite sides with respect to an imaginary central channel center plane of the central channel , and wherein at least one feed channel extends parallel or slightly obliquely to the central flow direction at least in the region of its orifice into the central channel and the central channel has a rectangular or square cross-section at least in an orifice region into which the feed channels open, characterized in that the gluing device comprises at least two nozzle air feed channels for feeding nozzle air , which open into the central channel behind the particle feed channels on opposite sides thereof in the central flow direction of the transport air in the central channel , and at least two protective air feed channels for feeding protective air , which open into the central channel behind the nozzle air feed channels on opposite sides thereof in the central flow direction , wherein at least one glue nozzle for introducing glue into the central channel is arranged behind the respective orifices of the nozzle air feed channels and upstream of the respective orifices of the protective air feed channels , as viewed in the central flow direction .
An apparatus for a host vehicle, the apparatus comprising at least one processing device configured to: receive a first output from a first data source associated with the host vehicle and a second output from a second data source associated with the host vehicle, wherein at least one of the first data source and the second data source comprise a sensor onboard the host vehicle; identify a target object in the first output; characterized in that the processing device is further configured to: $ determine whether a characteristic of the target object triggers at least one navigational constraint; if the at least one navigational constraint is triggered based on the characteristic of the target object, then verify the identification of the target object based on the first output and without use of the second output; if the at least one navigational constraint is not triggered based on the characteristic of the target object, then verify the identification of the target object based on a combination of the first output and the second output; and in response to the verification, cause at least one navigational change to the host vehicle, wherein the at least one navigational constraint includes at least one safety constraint, and wherein the at least one navigational change includes at least one of: slowing the host vehicle, accelerating the host vehicle, or activating a steering mechanism of the host vehicle. receive a first output from a first data source associated with the host vehicle and a second output from a second data source associated with the host vehicle, wherein at least one of the first data source and the second data source comprise a sensor onboard the host vehicle; identify a target object in the first output; determine whether a characteristic of the target object triggers at least one navigational constraint; if the at least one navigational constraint is triggered based on the characteristic of the target object, then verify the identification of the target object based on the first output and without use of the second output; if the at least one navigational constraint is not triggered based on the characteristic of the target object, then verify the identification of the target object based on a combination of the first output and the second output; and in response to the verification, cause at least one navigational change to the host vehicle, wherein the at least one navigational constraint includes at least one safety constraint, and wherein the at least one navigational change includes at least one of: slowing the host vehicle, accelerating the host vehicle, or activating a steering mechanism of the host vehicle.
An implantable system for neuromodulation of cranial nerves, the system comprising: a first housing configured for implantation in an anterior cervical region of a patient, at or under a mandible of the patient; a first electrode lead coupled to the first housing , the first electrode lead comprising at least one electrode configured to be disposed at or near a first cranial nerve target in the patient, wherein the first cranial nerve target comprises a main body of a hypoglossal nerve of the patient or a branch of the hypoglossal nerve of the patient; and a signal generator circuit provided in the first housing and configured to generate electrical neuromodulation signals for delivery to the cranial nerve target using the at least one electrode of the first electrode lead , the system further comprising: a second electrode lead coupled to the first housing (1004; 1102), characterised in the second electrode lead comprising at least one electrode configured to be disposed at or near a second cranial nerve target in the patient, and wherein the signal generator circuit is configured to generate respective neuromodulation signals for delivery to the first and second cranial nerve targets using the electrodes on the first and second electrode leads to treat obstructive sleep apnea. a first housing configured for implantation in an anterior cervical region of a patient, at or under a mandible of the patient; a first electrode lead coupled to the first housing , the first electrode lead comprising at least one electrode configured to be disposed at or near a first cranial nerve target in the patient, wherein the first cranial nerve target comprises a main body of a hypoglossal nerve of the patient or a branch of the hypoglossal nerve of the patient; and a signal generator circuit provided in the first housing and configured to generate electrical neuromodulation signals for delivery to the cranial nerve target using the at least one electrode of the first electrode lead ,
A method of transmitting a signal by a user equipment, UE, in a wireless communication system, the method comprising: transmitting (S1201) 1st stage Sidelink Control Information, SCI, through a physical sidelink control channel, PSCCH; and transmitting (S1202) 2nd stage SCI through a physical sidelink shared channel, PSSCH, characterized in that the number of symbols for transmission of the 2nd stage SCI is determined based on the number of resource elements, REs, related to the 2nd stage SCI, wherein the number of REs related to the 2nd stage SCI equals to 'M - N', where 'N' denotes the number of REs related to the PSCCH, and 'M' denotes a number of REs related to the PSSCH. transmitting (S1201) 1st stage Sidelink Control Information, SCI, through a physical sidelink control channel, PSCCH; and transmitting (S1202) 2nd stage SCI through a physical sidelink shared channel, PSSCH, characterized in that the number of symbols for transmission of the 2nd stage SCI is determined based on the number of resource elements, REs, related to the 2nd stage SCI, wherein the number of REs related to the 2nd stage SCI equals to 'M - N', where 'N' denotes the number of REs related to the PSCCH, and 'M' denotes a number of REs related to the PSSCH.
A method performed by a User Equipment, UE, for handling actions performed by a vehicle , the method comprising: obtaining , from the vehicle , action information indicating that an action has been performed by a system comprised in the vehicle ; notifying a user after the action has ended that the action has been performed; providing additional information about the performed action to the user ; enabling settings of the system to be changed based on the additional information. obtaining , from the vehicle , action information indicating that an action has been performed by a system comprised in the vehicle ; notifying a user after the action has ended that the action has been performed; providing additional information about the performed action to the user ; enabling settings of the system to be changed based on the additional information.
A part , comprising: at least two work pieces of steel welded together at a weld seam ; the weld seam having a laser metal deposition layer applied via laser metal deposition of a powder of nickel and/or iron after the at least two work pieces are welded together at the weld seam, the laser metal deposition layer including at least one of nickel and iron and being substantially entirely free of silicate islands; and a painted, phosphated or electrocoated coating bonded with at least a portion of the substantially entirely silicate island free laser metal deposition layer of the weld seam . at least two work pieces of steel welded together at a weld seam ; the weld seam having a laser metal deposition layer applied via laser metal deposition of a powder of nickel and/or iron after the at least two work pieces are welded together at the weld seam, the laser metal deposition layer including at least one of nickel and iron and being substantially entirely free of silicate islands; and a painted, phosphated or electrocoated coating bonded with at least a portion of the substantially entirely silicate island free laser metal deposition layer of the weld seam .
An electronic device comprising: an oscillator configured to output a clock signal of predetermined frequency; a clock circuit configured to count date and time in accordance with input of the clock signal; a temperature sensor configured to measure a temperature relating to a change of the predetermined frequency; a positioning satellite radio receiver configured to receive a radio wave from a positioning satellite; and a processor , wherein the processor estimates an amount of time count difference in date and time counted by the clock circuit on the basis of a history of temperatures measured by the temperature sensor , and combines date and time counted by the clock circuit , the estimated amount of time count difference, and part of date-and-time information obtained from a radio wave received by the positioning satellite radio receiver to identify current date and time, characterized in that the processor performs predictive-reception-based time acquisition in which the processor generates a predicted code string expected to be received by the positioning satellite radio receiver , on the basis of date and time and the amount of time count difference, counted and estimated respectively by the clock circuit , and then the processor identifies current date and time on the basis of matching detection timing between the predicted code string and a received code string received by the positioning satellite radio receiver . an oscillator configured to output a clock signal of predetermined frequency; a clock circuit configured to count date and time in accordance with input of the clock signal; a temperature sensor configured to measure a temperature relating to a change of the predetermined frequency; a positioning satellite radio receiver configured to receive a radio wave from a positioning satellite; and a processor , wherein the processor estimates an amount of time count difference in date and time counted by the clock circuit on the basis of a history of temperatures measured by the temperature sensor , and combines date and time counted by the clock circuit , the estimated amount of time count difference, and part of date-and-time information obtained from a radio wave received by the positioning satellite radio receiver to identify current date and time, characterized in that the processor performs predictive-reception-based time acquisition in which the processor generates a predicted code string expected to be received by the positioning satellite radio receiver , on the basis of date and time and the amount of time count difference, counted and estimated respectively by the clock circuit , and then the processor identifies current date and time on the basis of matching detection timing between the predicted code string and a received code string received by the positioning satellite radio receiver .