mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly for a piece of rotational equipment with an axis , comprising: a static structure configured with a bore , a slot , a first slot surface and a second slot surface , the slot extending radially into the static structure from the bore , and the slot extending axially within the static structure between the first slot surface and the second slot surface ; a bearing within the bore ; and a centering spring mounting the bearing to the static structure , the centering spring comprising an annular hub and a mounting tab , the annular hub within the bore , and the mounting tab projecting radially from the annular hub into the slot , characterized in that : the mounting tab extends axially between a first tab surface and a second tab surface and circumferentially to a third tab surface ; the third tab surface is axially between the first tab surface and the second tab surface , and is angularly offset from the first tab surface and the second tab surface by a non-ninety degree included angle; and the static structure engages the third tab surface . a static structure configured with a bore , a slot , a first slot surface and a second slot surface , the slot extending radially into the static structure from the bore , and the slot extending axially within the static structure between the first slot surface and the second slot surface ; a bearing within the bore ; and a centering spring mounting the bearing to the static structure , the centering spring comprising an annular hub and a mounting tab , the annular hub within the bore , and the mounting tab projecting radially from the annular hub into the slot , characterized in that : the mounting tab extends axially between a first tab surface and a second tab surface and circumferentially to a third tab surface ; the third tab surface is axially between the first tab surface and the second tab surface , and is angularly offset from the first tab surface and the second tab surface by a non-ninety degree included angle; and the static structure engages the third tab surface . the mounting tab extends axially between a first tab surface and a second tab surface and circumferentially to a third tab surface ; the third tab surface is axially between the first tab surface and the second tab surface , and is angularly offset from the first tab surface and the second tab surface by a non-ninety degree included angle; and the static structure engages the third tab surface .
A method for operating a nuclear reactor comprising a core , the method comprising the following steps: - acquisition of a plurality of quantities characterizing the operation of the nuclear reactor ; - calculation of at least one critical thermal flux ratio; - calculation of the deviations between the at least one calculated critical thermal flux ratio from a plurality of predetermined reference threshold values; - generation of a control signal for a control system of the reactor, using the calculated deviations, the control signal being selected from a list comprising at least the following values: * automatic reactor shutdown or alarm; * do nothing; - emergency shutdown of the nuclear reactor by the control system when the elaborated control signal has the value "automatic reactor shutdown", or emission of an alarm signal by the control system when the elaborated control signal has the value "alarm"; characterized in that the at least one critical thermal flux ratio is calculated using a deep neural network , the entries of the deep neural network being determined using the acquired quantities, the deep neural network comprising at least two hidden layers of at least five neurons each, said acquired quantities comprising neutron flux measurements made by neutron flux detectors , the entries of the neural network comprising the axial power distribution (P(z)) in the core of the nuclear reactor, reconstructed from the acquired neutron flux measurements. - acquisition of a plurality of quantities characterizing the operation of the nuclear reactor ; - calculation of at least one critical thermal flux ratio; - calculation of the deviations between the at least one calculated critical thermal flux ratio from a plurality of predetermined reference threshold values; - generation of a control signal for a control system of the reactor, using the calculated deviations, the control signal being selected from a list comprising at least the following values: * automatic reactor shutdown or alarm; * do nothing; * automatic reactor shutdown or alarm; * do nothing; - emergency shutdown of the nuclear reactor by the control system when the elaborated control signal has the value "automatic reactor shutdown", or emission of an alarm signal by the control system when the elaborated control signal has the value "alarm";
A composition comprising a hydrophobic polymer matrix and a surfactant, wherein the surfactant is miscible but not fully soluble in the polymer matrix, wherein the composition is a hydrophilic pressure sensitive or a hydrophilic heat activated adhesive and wherein the polymer matrix comprises methoxyethyl acrylate.
A method for classifying an individual as having or not having disposition for aneurysm initiation, in the future, in a point on a wall of a cerebral artery of an individual, the method being executed by a computerized system and comprising: receiving, from a modality, input data comprising morphological data of the cerebral artery, the morphological data comprising data indicative of at least first and second geometrical parameters comprising artery diameter and artery curvature of the cerebral artery along its trajectory; analyzing said input data; and upon identifying at least one flow-diverting location along the cerebral artery satisfying both first and second predetermined conditions comprising a minimal value of the artery diameter and a corresponding upper limit of the artery curvature value, which above it the individual develops aneurysm, classifying said individual as having disposition for formation of an aneurysm, in the future, at said flow-diverting location of the cerebral artery, and generating classification data; and generating, based on the classification data, prediction data for said individual with regard to aneurysm formation in the future. receiving, from a modality, input data comprising morphological data of the cerebral artery, the morphological data comprising data indicative of at least first and second geometrical parameters comprising artery diameter and artery curvature of the cerebral artery along its trajectory; analyzing said input data; and upon identifying at least one flow-diverting location along the cerebral artery satisfying both first and second predetermined conditions comprising a minimal value of the artery diameter and a corresponding upper limit of the artery curvature value, which above it the individual develops aneurysm, classifying said individual as having disposition for formation of an aneurysm, in the future, at said flow-diverting location of the cerebral artery, and generating classification data; and generating, based on the classification data, prediction data for said individual with regard to aneurysm formation in the future.
An article of headwear configured to be worn on a head of a wearer comprising: a crown that is configured for covering a portion of the head; and a bill that defines an inner edge that is operably coupled to the crown , the bill also projecting away from the crown and terminating at an outer edge , the bill including: a stiffener that extends along and that stiffens the outer edge , the stiffener being spaced from the crown , the stiffener including a top surface, a covering layer that encloses the stiffener within the bill , a cavity defined between the covering layer , the stiffener , and the crown , and an insert that is received and enclosed within the cavity , the insert including an upper surface , characterized by the upper surface and the top surface of the stiffener being substantially aligned in a cross section of the bill . a crown that is configured for covering a portion of the head; and a bill that defines an inner edge that is operably coupled to the crown , the bill also projecting away from the crown and terminating at an outer edge , the bill including: a stiffener that extends along and that stiffens the outer edge , the stiffener being spaced from the crown , the stiffener including a top surface, a covering layer that encloses the stiffener within the bill , a cavity defined between the covering layer , the stiffener , and the crown , and an insert that is received and enclosed within the cavity , the insert including an upper surface , characterized by the upper surface and the top surface of the stiffener being substantially aligned in a cross section of the bill . a stiffener that extends along and that stiffens the outer edge , the stiffener being spaced from the crown , the stiffener including a top surface, a covering layer that encloses the stiffener within the bill , a cavity defined between the covering layer , the stiffener , and the crown , and an insert that is received and enclosed within the cavity , the insert including an upper surface , characterized by the upper surface and the top surface of the stiffener being substantially aligned in a cross section of the bill .
A coupling device for releasably connecting an eyepiece of endoscope optics to a camera objective, with a receiver for the eyepiece , with fastening means for fastening the eyepiece in the receiver , said fastening means being controlled by the eyepiece in a manner such that an automatic fastening of the eyepiece in the receiver is effected on introducing the eyepiece into the receiver , and with a manually actuatable grip part which is arranged at the outer side for releasing the fastening, said grip part being manually displaceable in the insertion direction of the eyepiece into the receiver against spring force only for release, wherein at least one spring-biased control element is movably arranged in the receiver , said control element being coupled in movement to a fastening element for fastening the eyepiece in the receiver , characterised in that one component forms the control element as well as the fastening element , that the fastening element is locked in a position which fixes the eyepiece in the receiver , by way of the grip part and that the grip part can be fixed in a position which releases the eyepiece , by way of the fastening element.
An aseptic filling method, wherein after a heated preform is put in a molding die , the molding die is clamped, and a mist or gas of a sterilizer or a mixture thereof is blasted into the preform , a blow molding air is blasted into the preform to expand the preform into a container as a finished product, the used blow molding air is discharged from the container to remove the sterilizer in the container , and the container is removed from the molding die , filled with a content and sealed, wherein after the mist or gas of the sterilizer or the mixture thereof is blasted into the preform , a primary blow molding air (P1) is blasted into the preform to expand the preform into an intermediate molded product and at the same time sterilize an interior of the intermediate molded product , characterized in that a secondary blow molding air (P2) is then blasted into the intermediate molded product to expand the intermediate molded product into the container as the finished product, the used blow molding air is discharged from the container to remove the sterilizer in the container , and the container is removed from the molding die , filled with the content and sealed. wherein after the mist or gas of the sterilizer or the mixture thereof is blasted into the preform , a primary blow molding air (P1) is blasted into the preform to expand the preform into an intermediate molded product and at the same time sterilize an interior of the intermediate molded product , characterized in that a secondary blow molding air (P2) is then blasted into the intermediate molded product to expand the intermediate molded product into the container as the finished product, the used blow molding air is discharged from the container to remove the sterilizer in the container , and the container is removed from the molding die , filled with the content and sealed.
A secondary battery having a structure in which an electrode assembly including a positive electrode , a negative electrode , and a separator interposed between the positive electrode and the negative electrode is housed in a battery case , wherein the separator includes: a perforated line formed in all or part of the separator ; and a magnetic body formed in an area adjacent to the perforated line that does not overlap, and arranged continuously or discontinuously at a position spaced apart from each other along the perforated line . a perforated line formed in all or part of the separator ; and a magnetic body formed in an area adjacent to the perforated line that does not overlap, and arranged continuously or discontinuously at a position spaced apart from each other along the perforated line .
A method for learning a compression/decompression context comprising at least one compression/decompression rule intended to be used by a compressor device and a decompressor device , for respectively compressing and decompressing at least one first data flow transmitted via at least one first communication link , characterised in that at least one device, from among the compressor device , the decompressor device and a third party device , carries out the following steps of: • analysing (E200) at least one second non-compressed data flow transmitted between the compressor device and the decompressor device via at least one second communication link ; and • learning (E210) said at least one compression/decompression rule as a function of said analysis; in that said learning step comprises a modification (E210b) of at least one basic compression/decompression rule in order to obtain said at least one compression/decompression rule comprised within said compression/decompression context, in that said at least one basic compression/decompression rule comprises at least one adaptation field description defining a compression/decompression behaviour for an adaptation field of said at least one first data flow, and in that said modification comprises, for each selected basic compression/decompression rule: • for each adaptation field description, a modification of at least one attribute of said adaptation field description, as a function of a current value of said adaptation field in a packet of said at least one second data flow. • analysing (E200) at least one second non-compressed data flow transmitted between the compressor device and the decompressor device via at least one second communication link ; and • learning (E210) said at least one compression/decompression rule as a function of said analysis; • for each adaptation field description, a modification of at least one attribute of said adaptation field description, as a function of a current value of said adaptation field in a packet of said at least one second data flow.
A counter system for use in a drug delivery device comprising: - a housing , - a counter element which is an elongate component, the counter element comprising indentations , which are holes and are arranged sequentially along the counter element, and - indicia associated with the indentations , and - a drive member provided with a catch for driving the counter element , wherein ∘ the catch engages a first indentation , and wherein the catch is configured such that, when ▪ the drive member moves in a first direction, the counter element does not move, wherein movement of the counter element in the first direction is prevented by the counter element interacting with the housing or by the counter element engaging to the housing, and ▪ the catch disengages the first indentation and engages a second indentation which is arranged adjacent to the first indentation , wherein ▪ the shape of the catch allows the drive member to glide along the counter element , and when the drive member moves in a second direction which is opposite to the first direction, the counter element also moves in the second direction, as the catch engages the indentation wherein a protrusion of catch engages the counter element . - a housing , - a counter element which is an elongate component, the counter element comprising indentations , which are holes and are arranged sequentially along the counter element, and - indicia associated with the indentations , and - a drive member provided with a catch for driving the counter element , wherein ∘ the catch engages a first indentation , and wherein the catch is configured such that, when ▪ the drive member moves in a first direction, the counter element does not move, wherein movement of the counter element in the first direction is prevented by the counter element interacting with the housing or by the counter element engaging to the housing, and ▪ the catch disengages the first indentation and engages a second indentation which is arranged adjacent to the first indentation , wherein ▪ the shape of the catch allows the drive member to glide along the counter element , and when the drive member moves in a second direction which is opposite to the first direction, the counter element also moves in the second direction, as the catch engages the indentation wherein a protrusion of catch engages the counter element . ▪ the drive member moves in a first direction, the counter element does not move, wherein movement of the counter element in the first direction is prevented by the counter element interacting with the housing or by the counter element engaging to the housing, and ▪ the catch disengages the first indentation and engages a second indentation which is arranged adjacent to the first indentation , wherein ▪ the shape of the catch allows the drive member to glide along the counter element , and when the drive member moves in a second direction which is opposite to the first direction, the counter element also moves in the second direction, as the catch engages the indentation wherein a protrusion of catch engages the counter element .
A heater tube assembly comprising: a tube ; a bus bar network on the tube ; a positive temperature coefficient heater on the tube , wherein the positive temperature coefficient heater is electrically connected to the bus bar network ; and an outer dielectric layer overlaying the bus bar network and the positive temperature coefficient heater ; the heater tube assembly being characterised in that the bus bar network comprises one or more layers of a first additively manufactured conductive ink, the positive temperature coefficient heater comprising one or more layers of a second additively manufactured conductive ink, and that the heater tube assembly comprises a closeout adhesive applied on top of the positive temperature coefficient heater and the bus bar network securing the bus bar network and the positive temperature coefficient heater to the tube and separating the bus bar network and the positive temperature coefficient heater from an external environment. a tube ; a bus bar network on the tube ; a positive temperature coefficient heater on the tube , wherein the positive temperature coefficient heater is electrically connected to the bus bar network ; and an outer dielectric layer overlaying the bus bar network and the positive temperature coefficient heater ; the heater tube assembly being characterised in that the bus bar network comprises one or more layers of a first additively manufactured conductive ink, the positive temperature coefficient heater comprising one or more layers of a second additively manufactured conductive ink, and that the heater tube assembly comprises a closeout adhesive applied on top of the positive temperature coefficient heater and the bus bar network securing the bus bar network and the positive temperature coefficient heater to the tube and separating the bus bar network and the positive temperature coefficient heater from an external environment.
A control method for a magnetic bearing, wherein the control method comprises following steps: acquiring a suspension stopping instruction for the magnetic bearing, applying a control current to a control coil of the magnetic bearing to subject a rotor of the magnetic bearing to a vertically or obliquely upwards electromagnetic force, a vertical component of the electromagnetic force is less than gravity of the rotor, characterized in that the control current is gradually decreased. acquiring a suspension stopping instruction for the magnetic bearing, applying a control current to a control coil of the magnetic bearing to subject a rotor of the magnetic bearing to a vertically or obliquely upwards electromagnetic force, a vertical component of the electromagnetic force is less than gravity of the rotor, characterized in that the control current is gradually decreased.
A method for a user equipment, UE, to transmit a hybrid automatic repeat request acknowledgement, HARQ-ACK, signal in a physical uplink control channel, PUCCH in response to a detection of an enhanced physical downlink control channel, EPDCCH, transmitted from a base station in a transmission time interval, TTI, the method comprising the steps of: detecting, by the UE, the EPDCCH, over a number of control channel elements, CCEs, wherein the EPDCCH conveys a downlink control information, DCI, format comprising a HARQ-ACK PUCCH resource offset, HPRO, information field; determining, by the UE, a PUCCH resource as a sum of an index of a first CCE used for the DCI format in the EPDCCH, an integer derived based on the HPRO information field, and an offset assigned to the UE from the base station via higher layer signaling; and transmitting, by the UE, the HARQ-ACK signal on the determined PUCCH resource, wherein a transmission type of the EPDCCH is distributed transmission, and wherein the offset assigned to the UE from the base station via higher layer signaling is configured corresponding to a set of physical resource blocks, PRBs, for the EPDCCH. detecting, by the UE, the EPDCCH, over a number of control channel elements, CCEs, wherein the EPDCCH conveys a downlink control information, DCI, format comprising a HARQ-ACK PUCCH resource offset, HPRO, information field; determining, by the UE, a PUCCH resource as a sum of an index of a first CCE used for the DCI format in the EPDCCH, an integer derived based on the HPRO information field, and an offset assigned to the UE from the base station via higher layer signaling; and transmitting, by the UE, the HARQ-ACK signal on the determined PUCCH resource, wherein a transmission type of the EPDCCH is distributed transmission, and wherein the offset assigned to the UE from the base station via higher layer signaling is configured corresponding to a set of physical resource blocks, PRBs, for the EPDCCH.
Roofing element , in particular intended to cover a framework of a construction, comprising an outer surface extending along a plane of extension (XY) and an inner, bearing surface opposite the outer surface , the roofing element being delimited by two longitudinal sides and two transverse sides , said sides delimiting a closed peripheral contour of said roofing element, said roofing element being made of non-porous and hydrophobic material, characterized in that the entire outer surface comprises a plurality of reliefs extending in a non-ordered and multidirectional manner inside the plane (XY) of extension of the outer surface and in that the entire inner surface of the roofing element comprises a plurality of reliefs extending in a non-ordered manner characterizing a multidirectional surface roughness.