mhurhangee/patent-ind-claim-en huggingface dataset:
Temple for glasses for the blind or visually impaired, comprising an end portion , intended to be supported by a user's ear, and a fixing portion , intended to be fixed to a front frame of the glasses , wherein the temple comprises: - a first component provided with an electromechanical connector , preferably a USB connector; - a second component provided with a fastening for the electromechanical connector , said fastening and said electromechanical connector being designed to form a structural connection between the first component and the second component ; wherein the first component comprises the fixing portion for fixing to the frame and the second component comprises the end portion of the temple , characterized in that the first component is provided with an electronic module comprising an optical sensor for detecting an obstacle in the direction of displacement of the user. - a first component provided with an electromechanical connector , preferably a USB connector; - a second component provided with a fastening for the electromechanical connector , said fastening and said electromechanical connector being designed to form a structural connection between the first component and the second component ; wherein the first component comprises the fixing portion for fixing to the frame and the second component comprises the end portion of the temple , characterized in that the first component is provided with an electronic module comprising an optical sensor for detecting an obstacle in the direction of displacement of the user.
A needle for use with a biopsy device comprising: (a) an outer cannula defining a cutter lumen for receiving a cutter therein and a lateral lumen adjacent to the cutter lumen; and (b) a tissue piercing tip having a body defining a plurality of cutting edges , the plurality of cutting edges together defining a plurality of cutting surfaces , a marker opening disposed on at least one cutting surface of the plurality of cutting surfaces between opposing cutting edges of the plurality of cutting edges, and a marker lumen extending distally through the body from the marker opening to a proximal opening, wherein the proximal opening is in communication with the cutter lumen. (a) an outer cannula defining a cutter lumen for receiving a cutter therein and a lateral lumen adjacent to the cutter lumen; and (b) a tissue piercing tip having a body defining a plurality of cutting edges , the plurality of cutting edges together defining a plurality of cutting surfaces , a marker opening disposed on at least one cutting surface of the plurality of cutting surfaces between opposing cutting edges of the plurality of cutting edges, and a marker lumen extending distally through the body from the marker opening to a proximal opening, wherein the proximal opening is in communication with the cutter lumen.
A time synchronization system including at least one time server and a plurality of time clients connected to each other via a network, the time server comprising: communication means configured to transmit time information of an internal timepiece upon receiving a message transmitted from one of the plurality of time clients ; and time count control means configured to, when a plurality of messages are received from the plurality of time clients within a predetermined time, output, via the communication means , collision estimation information generated with respect to a message received from one of the plurality of time clients which was received later, and each of the time clients comprising time count control means configured to synchronize time information of an internal timepiece with time information of the time server which is obtained by transmitting a message to, and receiving a message from, the time server , and wherein the time count control means of each of the plurality of time clients is configured to adjust transmission intervals between transmission of the messages to the time server to be irregular intervals and configured to control transmission of the messages to the time server upon receiving the collision estimation information. communication means configured to transmit time information of an internal timepiece upon receiving a message transmitted from one of the plurality of time clients ; and time count control means configured to, when a plurality of messages are received from the plurality of time clients within a predetermined time, output, via the communication means , collision estimation information generated with respect to a message received from one of the plurality of time clients which was received later, and each of the time clients comprising time count control means configured to synchronize time information of an internal timepiece with time information of the time server which is obtained by transmitting a message to, and receiving a message from, the time server , and wherein the time count control means of each of the plurality of time clients is configured to adjust transmission intervals between transmission of the messages to the time server to be irregular intervals and configured to control transmission of the messages to the time server upon receiving the collision estimation information.
Self-tailing winch with a release function, where said winch comprises: - a stator body adapted to be fastened on a surface; - a drum body arranged concentrically and rotatable around said stator body; - a self-tailing device arranged concentrically to said drum body , where said self-tailing device comprises: - two self-tailing jaws defining an opening suitable to receive a rope, sheet or halyard; - a self-tailing cover which is rotatable relative to the drum body and the self-tailing jaws ; characterised in that it further comprises - a releasable coupling arranged between the self-tailing cover and the self-tailing jaws , said coupling being able to couple the self-tailing jaws to the drum body and by manipulating the self-tailing cover completely releasing the self-tailing jaws from their engagement with the drum body , allowing the self-tailing jaws to rotate relative to the drum . - a stator body adapted to be fastened on a surface; - a drum body arranged concentrically and rotatable around said stator body; - a self-tailing device arranged concentrically to said drum body , where said self-tailing device comprises: - two self-tailing jaws defining an opening suitable to receive a rope, sheet or halyard; - a self-tailing cover which is rotatable relative to the drum body and the self-tailing jaws ; characterised in that it further comprises - a releasable coupling arranged between the self-tailing cover and the self-tailing jaws , said coupling being able to couple the self-tailing jaws to the drum body and by manipulating the self-tailing cover completely releasing the self-tailing jaws from their engagement with the drum body , allowing the self-tailing jaws to rotate relative to the drum . - two self-tailing jaws defining an opening suitable to receive a rope, sheet or halyard; - a self-tailing cover which is rotatable relative to the drum body and the self-tailing jaws ; characterised in that it further comprises - a releasable coupling arranged between the self-tailing cover and the self-tailing jaws , said coupling being able to couple the self-tailing jaws to the drum body and by manipulating the self-tailing cover completely releasing the self-tailing jaws from their engagement with the drum body , allowing the self-tailing jaws to rotate relative to the drum .
A method for manufacturing a turbomachine hollow composite material part, comprising at least: - producing a fibrous blank (100; 200) in one piece by three-dimensional weaving of yarns, said blank comprising at least one de-bonded zone (102; 202) forming an internal cavity, - inserting a shaping part (140; 150) into the internal cavity of the fibrous blank (100; 200) in order to obtain a preform, - densification of the preform by a matrix in order to obtain a structure having a fibrous reinforcement consisting of said preform densified by said matrix, the method is such that the shaping part (140; 150) is flexible and that the shaping part (140; 150) is mechanically withdrawn from the structure after the densification step, the method being characterised in that the shaping part (140; 150) is produced from a material having a Shore A hardness between 30 and 80. - producing a fibrous blank (100; 200) in one piece by three-dimensional weaving of yarns, said blank comprising at least one de-bonded zone (102; 202) forming an internal cavity, - inserting a shaping part (140; 150) into the internal cavity of the fibrous blank (100; 200) in order to obtain a preform, - densification of the preform by a matrix in order to obtain a structure having a fibrous reinforcement consisting of said preform densified by said matrix,
A recombinant or synthetic peptide comprising an amino-acid sequence set forth in SEQ ID NO:314, wherein said peptide at least partially reactivates a mutant p53 protein in vitro ; and wherein said peptide is 6-15 amino-acids in length.
A system, comprising: a focal plane array, FPA of an infrared camera configured to capture thermal image data in response to infrared radiation received by the FPA via a first optical path of the infrared camera; a memory configured to store a set of supplemental flat field correction, SFFC, values; and a processor configured to: determine the set of SFFC values based on a set of FFC values; determine a temperature of at least one internal component of the infrared camera; determine a scale factor based on the temperature and/or a rate of temperature change of the at least one internal component; apply filter to the set of SFFC values to obtain a filtered set of SFFC values; generate a scaled set of SFFC values based on the scale factor and the filtered set of SFFC values; and generate , based on the scaled set of SFFC values, the set of FFC values, and the thermal image data, corrected thermal image data to account for non-uniformities associated with optics of the first optical path characterized in that the filter applied to the set of SFFC values is an edge-aware low pass filter. a focal plane array, FPA of an infrared camera configured to capture thermal image data in response to infrared radiation received by the FPA via a first optical path of the infrared camera; a memory configured to store a set of supplemental flat field correction, SFFC, values; and a processor configured to: determine the set of SFFC values based on a set of FFC values; determine a temperature of at least one internal component of the infrared camera; determine a scale factor based on the temperature and/or a rate of temperature change of the at least one internal component; apply filter to the set of SFFC values to obtain a filtered set of SFFC values; generate a scaled set of SFFC values based on the scale factor and the filtered set of SFFC values; and generate , based on the scaled set of SFFC values, the set of FFC values, and the thermal image data, corrected thermal image data to account for non-uniformities associated with optics of the first optical path characterized in that the filter applied to the set of SFFC values is an edge-aware low pass filter. determine the set of SFFC values based on a set of FFC values; determine a temperature of at least one internal component of the infrared camera; determine a scale factor based on the temperature and/or a rate of temperature change of the at least one internal component; apply filter to the set of SFFC values to obtain a filtered set of SFFC values; generate a scaled set of SFFC values based on the scale factor and the filtered set of SFFC values; and generate , based on the scaled set of SFFC values, the set of FFC values, and the thermal image data, corrected thermal image data to account for non-uniformities associated with optics of the first optical path characterized in that the filter applied to the set of SFFC values is an edge-aware low pass filter.
A suture delivery device comprising: a base portion defining a longitudinal axis, wherein the base portion includes a ring ; and a deployment portion extending from the base portion, wherein the deployment portion includes a plurality of petals extending along the longitudinal axis ("X") parallel to one another when the deployment portion is in a delivery position and extending radially outward from the longitudinal axis when the deployment portion is in a deployed position, wherein at least one of the petals includes a needle support ; characterised in that each petal of the plurality of petals has a convex cross-sectional profile when the deployment portion is in the deployed position, and each petal of the plurality of petals has a concave cross-sectional profile when the deployment portion is in the delivery position. a base portion defining a longitudinal axis, wherein the base portion includes a ring ; and a deployment portion extending from the base portion, wherein the deployment portion includes a plurality of petals extending along the longitudinal axis ("X") parallel to one another when the deployment portion is in a delivery position and extending radially outward from the longitudinal axis when the deployment portion is in a deployed position, wherein at least one of the petals includes a needle support ; characterised in that each petal of the plurality of petals has a convex cross-sectional profile when the deployment portion is in the deployed position, and each petal of the plurality of petals has a concave cross-sectional profile when the deployment portion is in the delivery position.
Method for detecting a leakage of a track signal on at least one railway track , a track signal being a signal transmitted via the rails of a railway track to detect the presence of a railway vehicle and/or to transmit information to a railway vehicle, the at least one railway track comprising at least two track sections being electrically isolated against each other, wherein the at least two track sections are adjacent sections being on tracks , which are side by side, wherein at least one receiver is associated to each track section, the method comprising: transmitting a respective test signal via each track section , wherein a time slot is associated to each track section , wherein the respective test signals are transmitted via the respective track sections at their respective time slot, wherein the test signals are transmitted and/or generated by a controller only, when no railway vehicle is present on the respective track section , wherein the same controller provides the signals for the track signals and the test signals, wherein the test signals include a signature , wherein the test signals transmitted via different track sections have a different signature , wherein the test signals and the track signals are modulated and the modulation frequency of the test signals is greater than the modulation frequency of the track signals; activating one or more receivers associated to the plurality of track sections , wherein the plurality of receivers are adapted to receive the test signals ; receiving the test signals via the track sections ; determining the track sections , where the test signals have been received; determining whether a leakage between a first track section and at least one second track section exists. transmitting a respective test signal via each track section , wherein a time slot is associated to each track section , wherein the respective test signals are transmitted via the respective track sections at their respective time slot, wherein the test signals are transmitted and/or generated by a controller only, when no railway vehicle is present on the respective track section , wherein the same controller provides the signals for the track signals and the test signals, wherein the test signals include a signature , wherein the test signals transmitted via different track sections have a different signature , wherein the test signals and the track signals are modulated and the modulation frequency of the test signals is greater than the modulation frequency of the track signals; activating one or more receivers associated to the plurality of track sections , wherein the plurality of receivers are adapted to receive the test signals ; receiving the test signals via the track sections ; determining the track sections , where the test signals have been received; determining whether a leakage between a first track section and at least one second track section exists.
Field device , in particular from the field of process measuring technology, with a sensor unit and an electronic unit that is arranged at least in part in a housing , comprising a protective device for at least one component of a detachable plug-type connection between a connector and a socket , wherein the socket is arranged at least in part on or in the housing of the electronic unit of the field device , characterized in that the protective device encompasses: at least one first and one second half shell , wherein the second half shell is at least partially complementary to the first half shell , wherein the two half shells are produced in such a way that they define an internal volume (V) when connected to one another and encapsulate the connector at least in part, at least one first feedthrough for feeding through the connector or both the connector and a cable that is attached to the connector into the internal volume (V) of the protective device , wherein the first feedthrough is at least part of one of the two half shells , and at least one connection unit for establishing a detachable connection of the two half shells with one another, and that the protective device encompasses at least one fixing unit for producing a releasable frictional and/or positive-locking attachment of the protective device on the housing , wherein the fixing unit is part of at least one of the two half shells , and the fixing unit complements the housing at least in part in the area of the socket and is constructed in such a way that the protective device can be plugged onto a section of the housing of the electronic unit of the field device or otherwise attached to a section of the housing of the electronic unit of the field device . at least one first and one second half shell , wherein the second half shell is at least partially complementary to the first half shell , wherein the two half shells are produced in such a way that they define an internal volume (V) when connected to one another and encapsulate the connector at least in part, at least one first feedthrough for feeding through the connector or both the connector and a cable that is attached to the connector into the internal volume (V) of the protective device , wherein the first feedthrough is at least part of one of the two half shells , and at least one connection unit for establishing a detachable connection of the two half shells with one another, and that the protective device encompasses at least one fixing unit for producing a releasable frictional and/or positive-locking attachment of the protective device on the housing , wherein the fixing unit is part of at least one of the two half shells , and the fixing unit complements the housing at least in part in the area of the socket and is constructed in such a way that the protective device can be plugged onto a section of the housing of the electronic unit of the field device or otherwise attached to a section of the housing of the electronic unit of the field device .
A method for manufacturing a composite material, comprising performing press molding of a fiber matrix structure including reinforcing fibers and a matrix resin which mainly includes a polyester-based resin having a crystallization temperature of between 140°C and 170°C; wherein the crystallization temperature was measured by melting 5 g of the polyester-based resin at a temperature rise rate of 10°C/min from ordinary temperature to 250°C using a differential scanning calorimeter to measure a melting point and then cooling the polyester-based resin at a temperature dropping rate of 10°C/min from 250°C to ordinary temperature, wherein the polyester-based resin is a polymer or a copolymer resulting from a condensation reaction between an aromatic dicarboxylic acid or a reactive derivative thereof and a diol or an ester derivative thereof as main components, wherein the matrix resin prior to the press molding is in a granular or film-like form.
An internal gear machining method for engaging an internal gear to be machined (W), which is rotatable about a work rotation axis (C1), with a barrel-shaped screw-like tool , which is rotatable about a tool rotation axis (B1) disposed at a predetermined angle of axis intersection (Σ) with respect to the work rotation axis (C1), and synchronously rotating the internal gear to be machined (W) and the screw-like tool in engagement with each other, thereby performing grinding of the internal gear to be machined (W), characterised in that the angle of axis intersection (Σ) for the grinding is set based on an outer diameter of the screw-like tool after dressing such that the state of contact between the screw-like tool after dressing and the internal gear to be machined (W) is the same as the state of contact between the screw-like tool before dressing and the internal gear to be machined (W), the outer diameter of the screw-like tool after dressing being predicted before the dressing of the screw-like tool , the screw-like tool is dressed based on the set angle of axis intersection (Σ), and the dressed screw-like tool is disposed at the set angle of axis intersection (Σ), wherein a slip velocity during grinding before dressing is computed, and the number of rotations of the internal gear to be machined (W) and the number of rotations (N) of the screw-like tool for grinding the internal gear to be machined (W) after dressing are set based on the computed slip velocity, whereby the slip velocity during grinding after dressing can be rendered identical with the slip velocity before dressing.
An anode material for a secondary battery which comprises alloy particles containing silicide microcrystals formed from silicon and two or more transition metals scattered in amorphous silicon, the transition metals being selected from Cr, Ti and Fe.
Drive pinion for a starter of an internal combustion engine for engaging in a ring gear of the internal combustion engine, comprising a toothing which has a plurality of teeth which each have an active flank , a passive flank and a head surface , - wherein the teeth extend radially outwards from a root circle of the toothing , - wherein bevels are formed on an end side of the drive pinion , - wherein a head bevel is formed between the head surface and end side , - wherein a passive flank bevel is formed between the passive flank and the end side , and - wherein an active flank bevel is formed between the active flank , the head bevel and the end side , characterized - in that a tangential bevel width of the active flank bevel increases monotonically from radially inwards to radially outwards, - in that an axial bevel width of the active flank bevel increases monotonically from radially inwards to radially outwards. - wherein the teeth extend radially outwards from a root circle of the toothing , - wherein bevels are formed on an end side of the drive pinion , - wherein a head bevel is formed between the head surface and end side , - wherein a passive flank bevel is formed between the passive flank and the end side , and - wherein an active flank bevel is formed between the active flank , the head bevel and the end side , characterized - in that a tangential bevel width of the active flank bevel increases monotonically from radially inwards to radially outwards, - in that an axial bevel width of the active flank bevel increases monotonically from radially inwards to radially outwards.