mhurhangee/patent-ind-claim-en huggingface dataset:
Nozzle tip for a hot runner nozzle comprising a front end directed downstream in the installed state and a rear end directed upstream in the installed state; wherein the nozzle tip has a central melt channel with an inlet opening at the rear end of the nozzle tip ; wherein the nozzle tip has a plurality of melt outlet channels which are connected to the central melt channel and are arranged at regular intervals about a central longitudinal axis (A) of the nozzle tip ; wherein the nozzle tip has a plurality of front outlet openings and a plurality of rear outlet openings into which respectively a front melt outlet channel , respectively a rear melt outlet channel opens, characterized in that the front melt outlet channels are directed rearwards.
Method for operating a transmitter of a radio key system of a motor vehicle , wherein a control device of the transmitter provides that for a respective closing operation (S) in at least one measuring cycle in each case in response to a polling message in several subsequent time slots in each case one of several anchor transmitters of the transmitter emits an anchor message and the measuring cycle is terminated by receiving a final message , which signals receiving times of the anchor messages measured by a radio key unit , characterized in that for determining a transmission order of the anchor transmitters by an assignment rule an assignment of the anchor transmitters to the time slots is performed, wherein the assignment rule provides that the assignment is effected in a time-variable manner.
Timepiece casing component comprising: a first element having a first surface of revolution about an axis ; a second element having a second surface of revolution about said axis and configured to be joined to the first element so as to form a channel of revolution between the first and the second surface , configured to receive a deformable connecting element ; wherein the casing component has immobilizing means for preventing the rotation of the first element relative to the second element , comprising: a first profile comprised over at least a part of the first surface and a second profile comprised over at least a part of the second surface , the first and second profiles varying in the radial direction relative to said axis so as to form a flared portion over at least a part of the channel , characterized in that the channel is configured to subject the connecting element to a substantially radial compression, when the first element is joined to the second element , such that the connecting element expands in the flared portion when the first element is joined to the second element . a first element having a first surface of revolution about an axis ; a second element having a second surface of revolution about said axis and configured to be joined to the first element so as to form a channel of revolution between the first and the second surface , configured to receive a deformable connecting element ; wherein the casing component has immobilizing means for preventing the rotation of the first element relative to the second element , comprising: a first profile comprised over at least a part of the first surface and a second profile comprised over at least a part of the second surface , the first and second profiles varying in the radial direction relative to said axis so as to form a flared portion over at least a part of the channel , characterized in that the channel is configured to subject the connecting element to a substantially radial compression, when the first element is joined to the second element , such that the connecting element expands in the flared portion when the first element is joined to the second element . a first profile comprised over at least a part of the first surface and a second profile comprised over at least a part of the second surface , the first and second profiles varying in the radial direction relative to said axis so as to form a flared portion over at least a part of the channel , characterized in that the channel is configured to subject the connecting element to a substantially radial compression, when the first element is joined to the second element , such that the connecting element expands in the flared portion when the first element is joined to the second element .
A genome editing system, comprising at least one nuclease that generates blunt-ended DNA breaks in a sequence-specific manner, wherein the genome editing system is configured to form a first and a second blunt-ended double strand break in an intron of a gene, wherein the intron comprises a splice donor site mutation that alters splice site recognition, thereby excising a segment of the intron at a mutation-eliminating cut site of the intron and at a splice site-generating cut site of the intron of the gene and simultaneously joining DNA ends flanking the excised segment of the intron through non-homologous end joining to constitute a functional donor splice site; wherein the at least one nuclease is: a) a nuclease that recognizes a Protospacer Adjacent Motif (PAM) and wherein the system further comprises a mutation-eliminating single guide RNA (sgRNA) and a splice site-generating sgRNA or b) a fusion polypeptide comprising a catalytically inactive nuclease that recognizes a PAM and a nuclease that generates blunt-ended DNA breaks. wherein the genome editing system is configured to form a first and a second blunt-ended double strand break in an intron of a gene, wherein the intron comprises a splice donor site mutation that alters splice site recognition, thereby excising a segment of the intron at a mutation-eliminating cut site of the intron and at a splice site-generating cut site of the intron of the gene and simultaneously joining DNA ends flanking the excised segment of the intron through non-homologous end joining to constitute a functional donor splice site; wherein the at least one nuclease is: a) a nuclease that recognizes a Protospacer Adjacent Motif (PAM) and wherein the system further comprises a mutation-eliminating single guide RNA (sgRNA) and a splice site-generating sgRNA or b) a fusion polypeptide comprising a catalytically inactive nuclease that recognizes a PAM and a nuclease that generates blunt-ended DNA breaks. a) a nuclease that recognizes a Protospacer Adjacent Motif (PAM) and wherein the system further comprises a mutation-eliminating single guide RNA (sgRNA) and a splice site-generating sgRNA or b) a fusion polypeptide comprising a catalytically inactive nuclease that recognizes a PAM and a nuclease that generates blunt-ended DNA breaks.
An antibody or antigen-binding fragment thereof that binds a Factor IX Padua comprising the amino acid sequence of SEQ ID NO: 1 and does not bind to a wild-type (WT) Factor IX comprising the amino acid sequence of SEQ ID NO: 2, wherein the antibody or antigen-binding fragment thereof comprises the amino acid sequences of: SSYAIS (SEQ ID NO: 6); GIVPAFGTANYAQKFQG (SEQ ID NO: 7); SWGVISFAY (SEQ ID NO: 8); RASQDISSYLN (SEQ ID NO: 9); AASNLQS (SEQ ID NO: 10); and MQYDSLPFTF (SEQ ID NO: 11).
Tank arrangement on a frame of a motorcycle, with a tank which is supported via respective supporting elements , arranged on the tank , on respectively assigned bearing elements arranged on the two outer sides of a frame element , an associated securing element being fixed in the region of the respective bearing element on the corresponding outer side of the frame element , characterized in that the respective securing element is connected by means of two screw connections to the frame element , the respective securing element surrounding the associated supporting element at a spacing. an associated securing element being fixed in the region of the respective bearing element on the corresponding outer side of the frame element , characterized in that the respective securing element is connected by means of two screw connections to the frame element , the respective securing element surrounding the associated supporting element at a spacing.
A method for determining performance characteristics of a trampoline with a jumping mat mounted in a frame structure , characterised in that a test specimen with an acceleration sensor integrated therein is mounted at an initial height (h1) above the jumping mat , that the test specimen is dropped from this initial height (hl) onto the jumping mat , bounces back off the jumping mat and is moved upwards again, in that , during this upward movement of the test specimen , its maximum deceleration (I) is determined by means of the acceleration sensor and, furthermore, the maximum rising height (h2) of the test specimen is determined, and that a performance index characterising this trampoline is formed from the ratio between maximum deceleration (I) and maximum rising height (h2). that the test specimen is dropped from this initial height (hl) onto the jumping mat , bounces back off the jumping mat and is moved upwards again, in that , during this upward movement of the test specimen , its maximum deceleration (I) is determined by means of the acceleration sensor and, furthermore, the maximum rising height (h2) of the test specimen is determined, and that a performance index characterising this trampoline is formed from the ratio between maximum deceleration (I) and maximum rising height (h2).
An audio driver assembly, comprising: a driver housing defining an audio exit opening; a diaphragm disposed within the driver housing; and a phase plug disposed between the diaphragm and the audio exit opening, the phase plug and the diaphragm separating a front volume containing air that is in fluid communication with a forward-facing surface of the diaphragm from a back volume of air that is in fluid communication with a rear-facing surface of the diaphragm, a portion of the back volume of air extending toward the audio exit opening and past the diaphragm through a gap between the phase plug and the driver housing, the phase plug is configured to direct audio waves from the diaphragm to the audio exit opening. a driver housing defining an audio exit opening; a diaphragm disposed within the driver housing; and a phase plug disposed between the diaphragm and the audio exit opening, the phase plug and the diaphragm separating a front volume containing air that is in fluid communication with a forward-facing surface of the diaphragm from a back volume of air that is in fluid communication with a rear-facing surface of the diaphragm, a portion of the back volume of air extending toward the audio exit opening and past the diaphragm through a gap between the phase plug and the driver housing, the phase plug is configured to direct audio waves from the diaphragm to the audio exit opening.
A thermal liner for protective apparel comprising: a nonwoven having 15-30 wt % of a polybenzimidazole fiber, the remaining balance being an aramid fiber, the nonwoven excluding wool and cellulosic fibers, and having a thickness less than 3 mm and a basis weight of less than 2.9 osy (100 gsm).
A method for manufacturing an optical fibre sensor device , comprising an enclosure delimiting a cavity and an optical fibre sensor , said optical fibre sensor comprising an optical fibre and a holding device of the sensor secured to the optical fibre, said holding device being passed through by the optical fibre between two fixing points provided on said holding device, characterised in that it comprises the steps of: - positioning the optical fibre sensor in the enclosure so as to have the fibre pass through two passage openings provided on the enclosure , the optical fibre extending generally along a longitudinal axis in said cavity , which delimits two portions of optical fibres in the enclosure, on either side of the holding device , each portion of fibre extending between one of said fixing points of the holding device and one of said passage openings of the enclosure, substantially along a straight line; - holding the optical fibre sensor in position; - producing a differential elongation of the enclosure in relation to the optical fibre sensor in the longitudinal direction, and toward the outside of the enclosure , while the optical fibre sensor remains held in position; - fixing the optical fibre to the enclosure at said passage openings; and - generating a slackening of said portions of fibre, a slackening of a portion of the optical fiber being such that the length of said portion of fibre extending between a fixing point of the holding device and a passage opening of the enclosure is greater than the geometrical distance between said fixing point of the holding device and said passage opening, making it possible to bring the enclosure back into a position of balance. - positioning the optical fibre sensor in the enclosure so as to have the fibre pass through two passage openings provided on the enclosure , the optical fibre extending generally along a longitudinal axis in said cavity , which delimits two portions of optical fibres in the enclosure, on either side of the holding device , each portion of fibre extending between one of said fixing points of the holding device and one of said passage openings of the enclosure, substantially along a straight line; - holding the optical fibre sensor in position; - producing a differential elongation of the enclosure in relation to the optical fibre sensor in the longitudinal direction, and toward the outside of the enclosure , while the optical fibre sensor remains held in position; - fixing the optical fibre to the enclosure at said passage openings; and - generating a slackening of said portions of fibre, a slackening of a portion of the optical fiber being such that the length of said portion of fibre extending between a fixing point of the holding device and a passage opening of the enclosure is greater than the geometrical distance between said fixing point of the holding device and said passage opening, making it possible to bring the enclosure back into a position of balance.
An apparatus comprising means for: obtaining a set of process data associated with an industrial process by using an initially commissioned motor with the industrial process, wherein the set of process data comprises measured values associated with the industrial process over a time period; estimating at least an energy consumption of each motor of a plurality motors over the time period by simulating the industrial process based at least partly on the set of process data and a plurality of digital twins associated with the plurality of motors, wherein the plurality of digital twins comprises at least a first digital twin of a first motor and a second digital twin of a second motor different to the first motor; extrapolating at least the energy consumption of each motor of the plurality of motors over an expected total useful lifetime of each motor, wherein the energy consumption of each motor of the plurality of motors is extrapolated based at least partly on the expected total useful lifetime of each motor, a power of each motor, and the time period for which the measured values are obtained; and indicating at least the extrapolated energy consumption of each motor of the plurality of motors. obtaining a set of process data associated with an industrial process by using an initially commissioned motor with the industrial process, wherein the set of process data comprises measured values associated with the industrial process over a time period; estimating at least an energy consumption of each motor of a plurality motors over the time period by simulating the industrial process based at least partly on the set of process data and a plurality of digital twins associated with the plurality of motors, wherein the plurality of digital twins comprises at least a first digital twin of a first motor and a second digital twin of a second motor different to the first motor; extrapolating at least the energy consumption of each motor of the plurality of motors over an expected total useful lifetime of each motor, wherein the energy consumption of each motor of the plurality of motors is extrapolated based at least partly on the expected total useful lifetime of each motor, a power of each motor, and the time period for which the measured values are obtained; and indicating at least the extrapolated energy consumption of each motor of the plurality of motors.
A liquid washing, cleaning or pretreatment agent for textiles, comprising a mixture of anionic surfactants and non-ionic surfactants, characterized in that it contains water as the principal solvent and the non-ionic surfactants have at least one fatty alcohol alkoxylate having a branched alkyl group that has a chain length of 9 to 15 C atoms and having a degree of alkoxylation of 3 to 9 alkoxyl groups per mol of fatty alcohol, the fatty alcohol alkoxylate having two or more terminal and/or central branches having two or more branch points in the alkyl group of the molecule, and the weight ratio of the anionic surfactants, which are not soaps, to branched fatty alcohol alkoxylate being in the range from 3:1 to 2:1 and branched fatty alcohol being contained in a total amount of 3 to 10 wt.%, based on the total amount of washing, cleaning or pretreatment agent.
Method for producing a security foil from an original foil comprising at least a carrier layer , a protection layer and a functional layer , the method comprising the steps of: selectively removing parts of the functional layer in the original foil to produce a clearance in the functional layer ; and printing a marking within the clearance to produce a printed layer adjacent to and non-overlapping with the functional layer . selectively removing parts of the functional layer in the original foil to produce a clearance in the functional layer ; and printing a marking within the clearance to produce a printed layer adjacent to and non-overlapping with the functional layer .
A terminal comprising: a transmission section configured to transmit capability information about whether the terminal is capable of multiplexing in a given time a short uplink control channel format having a time duration and a long uplink control channel format having a longer time duration than the time duration of the short uplink control channel format, a receiving section configured to receive higher layer signaling and downlink control information used for multiplexing the short uplink control channel format and the long uplink control channel format in the given time, wherein the higher layer signaling and the downlink control information are determined based on the capability information; and a control section configured to decide whether to multiplex the short uplink control channel format and the long uplink control channel format in the given time based on the higher layer signaling and the downlink control information. a transmission section configured to transmit capability information about whether the terminal is capable of multiplexing in a given time a short uplink control channel format having a time duration and a long uplink control channel format having a longer time duration than the time duration of the short uplink control channel format, a receiving section configured to receive higher layer signaling and downlink control information used for multiplexing the short uplink control channel format and the long uplink control channel format in the given time, wherein the higher layer signaling and the downlink control information are determined based on the capability information; and a control section configured to decide whether to multiplex the short uplink control channel format and the long uplink control channel format in the given time based on the higher layer signaling and the downlink control information.
A coupling arrangement comprising - a first shaft , preferably a crankshaft of an internal combustion engine , - a second shaft arranged coaxially with the first shaft , preferably an armature shaft of an electric machine , and - a coupling for play-free connection of the first shaft to the second shaft , - wherein an axis of rotation is defined corresponding to the two coaxial shafts , a peripheral direction is defined about the axis of rotation , and a radial direction is defined perpendicularly to the axis of rotation , - wherein the coupling comprises at least one movement element , and at least one coupling element which is movable relative to the two shafts in the peripheral direction and/or in the radial direction , and - wherein the movement element is designed to press the coupling element in the peripheral direction and/or radial direction without play against the first and/or second shaft , in order to compensate for play in the peripheral direction between the two shafts , characterised in that the coupling comprises as coupling elements a first splined shaft , a second splined shaft and a third splined shaft which is arranged between the first splined shaft and the second splined shaft , the three splined shafts (11 - 13) being arranged coaxially with the axis of rotation , the first splined shaft being connected to the second splined shaft by way of a torsion spring . - a first shaft , preferably a crankshaft of an internal combustion engine , - a second shaft arranged coaxially with the first shaft , preferably an armature shaft of an electric machine , and - a coupling for play-free connection of the first shaft to the second shaft , - wherein an axis of rotation is defined corresponding to the two coaxial shafts , a peripheral direction is defined about the axis of rotation , and a radial direction is defined perpendicularly to the axis of rotation , - wherein the coupling comprises at least one movement element , and at least one coupling element which is movable relative to the two shafts in the peripheral direction and/or in the radial direction , and - wherein the movement element is designed to press the coupling element in the peripheral direction and/or radial direction without play against the first and/or second shaft , in order to compensate for play in the peripheral direction between the two shafts ,