mhurhangee/ep-ind-claims huggingface dataset:
Production method for producing a component from a composite material having a fibre reinforcement formed from fibre bundles and resin, wherein the method comprises the steps: a) providing a component body having a plurality of tubular cavities; b) introducing resin and a pulling device for the fibre bundles into at least one of the cavities, wherein the pulling device comprises at least two pulling means which are each designed to pull the fibre bundles and to transmit compressive force; c) by means of the at least two pulling means, pulling at least one fibre bundle into the cavity, characterized in that step b) comprises at least one of the following steps: b1) jointly inserting a first pulling means and a second pulling means through the same end opening in the cavity, wherein, at a branch of the cavity, the first pulling means is introduced into a first cavity branching off from the cavity, while the second pulling means is introduced into a second cavity branching off from the cavity; or b2) introducing a first pulling means through an end opening into a first cavity and a second pulling means through a further end opening into a second cavity, wherein, at a merging point of the first cavity with the second cavity, the first pulling means and the second pulling means are guided together into a common cavity. a) providing a component body having a plurality of tubular cavities; b) introducing resin and a pulling device for the fibre bundles into at least one of the cavities, wherein the pulling device comprises at least two pulling means which are each designed to pull the fibre bundles and to transmit compressive force; c) by means of the at least two pulling means, pulling at least one fibre bundle into the cavity, b1) jointly inserting a first pulling means and a second pulling means through the same end opening in the cavity, wherein, at a branch of the cavity, the first pulling means is introduced into a first cavity branching off from the cavity, while the second pulling means is introduced into a second cavity branching off from the cavity; or b2) introducing a first pulling means through an end opening into a first cavity and a second pulling means through a further end opening into a second cavity, wherein, at a merging point of the first cavity with the second cavity, the first pulling means and the second pulling means are guided together into a common cavity.
A power tool having an electric motor, comprising: a motor switch coupled in series with the motor; a motor control module interfaced, with the motor switch and controls switching operation of the motor switch; and an overspeed detection module that operates independently from the motor control module to determine rotational speed of the motor and issues a signal to the motor control module when the rotational speed of the motor exceeds a threshold, characterized in that the overspeed detection module issues a disabling signal to the motor control module, wherein the motor control module opens the motor switch in response to the disabling signal from the overspeed detection module, thereby discontinuing motor operation. a motor switch coupled in series with the motor; a motor control module interfaced, with the motor switch and controls switching operation of the motor switch; and an overspeed detection module that operates independently from the motor control module to determine rotational speed of the motor and issues a signal to the motor control module when the rotational speed of the motor exceeds a threshold, characterized in that the overspeed detection module issues a disabling signal to the motor control module, wherein the motor control module opens the motor switch in response to the disabling signal from the overspeed detection module, thereby discontinuing motor operation.
A method of generating a hybrid feedback signal for use in controlling a system for applying a load to a material sample, comprising: providing a reference signal with a predetermined waveform to the system; measuring an output of the system with a sensor; differentially combining the reference signal with a feedback signal to obtain an initial control signal; processing the initial control signal in a proportional-integral block; differentially combining the processed initial control signal out of the proportional-integral block with the derivative of the feedback signal to obtain a final control signal; applying the final control signal to an actuator which causes the actuator to create a load which can be applied to the material sample; using an output signal of the sensor in a first frequency band as a first portion of the feedback signal, wherein the output signal of the sensor also includes resonances from the system and/or the material sample; processing the final control signal to create a simulated signal in a second frequency band that has one or more of reduced (i) resonances, (ii) phase delay and (iii) noise when compared to the output signal of the sensor in the second frequency band; and using the simulated signal in the second frequency band as a second portion of the feedback signal. providing a reference signal with a predetermined waveform to the system; measuring an output of the system with a sensor; differentially combining the reference signal with a feedback signal to obtain an initial control signal; processing the initial control signal in a proportional-integral block; differentially combining the processed initial control signal out of the proportional-integral block with the derivative of the feedback signal to obtain a final control signal; applying the final control signal to an actuator which causes the actuator to create a load which can be applied to the material sample; using an output signal of the sensor in a first frequency band as a first portion of the feedback signal, wherein the output signal of the sensor also includes resonances from the system and/or the material sample; processing the final control signal to create a simulated signal in a second frequency band that has one or more of reduced (i) resonances, (ii) phase delay and (iii) noise when compared to the output signal of the sensor in the second frequency band; and using the simulated signal in the second frequency band as a second portion of the feedback signal.
A method for forming a DLC film on a male spline section of a spline shaft by a hot cathode PIG plasma CVD device, wherein the hot cathode PIG plasma CVD device includes: i) a vacuum chamber that accommodates the spline shaft; ii) a plasma gun; iii) a reflecting electrode arranged within the vacuum chamber; iv) a first coil arranged to surround the plasma gun; v) a second coil arranged on the reflecting electrode side, the second coil facing the first coil; vi) a hot cathode PIG plasma source that forms a columnar plasma with a bulged center in the vacuum chamber; and vii) a material gas feed section that supplies material gas into the vacuum chamber, the material gas serving as material for the DLC film, the method comprising: arranging the plural spline shafts around the columnar plasma in the vacuum chamber; aligning the plural spline shafts coaxially on a support having a longitudinal axis that extends in the same direction that the columnar plasma extends; arranging the plural coaxially aligned spline shafts so that two of the plural coaxially aligned spline shafts are located near a center of the longitudinal axis of the support and are positioned so as to form an axial gap between the respective male spline sections of the two spline shafts near the center; and positioning the axial gap such that a center of the axial gap is positioned at the center of the longitudinal axis of the support and the center of the axial gap is also positioned at a center of the columnar plasma in the direction that the columnar plasma extends; wherein the male spline sections of the two coaxially aligned spline shafts are located on either side of the axial gap and are positioned a same distance away from the center of the axial gap along the longitudinal axis. arranging the plural spline shafts around the columnar plasma in the vacuum chamber; aligning the plural spline shafts coaxially on a support having a longitudinal axis that extends in the same direction that the columnar plasma extends; arranging the plural coaxially aligned spline shafts so that two of the plural coaxially aligned spline shafts are located near a center of the longitudinal axis of the support and are positioned so as to form an axial gap between the respective male spline sections of the two spline shafts near the center; and positioning the axial gap such that a center of the axial gap is positioned at the center of the longitudinal axis of the support and the center of the axial gap is also positioned at a center of the columnar plasma in the direction that the columnar plasma extends; wherein the male spline sections of the two coaxially aligned spline shafts are located on either side of the axial gap and are positioned a same distance away from the center of the axial gap along the longitudinal axis.
Filter bag for a vacuum cleaner, wherein the filter bag comprises an air-permeable filter material for receiving dust particles and an inlet with an inlet opening for the passage of dust-laden suction air into an interior of the dust bag, wherein an irreversible threshold value valve is arranged at the inlet opening, is in an initial state in which it is closed in an air-tight manner and is configured to open when a threshold value is reached, characterised in that the threshold value valve comprises at least one resilient section, wherein the threshold value valve is configured to inflate and, as a result, to unfold the filter bag.
A method for a wireless communication node configured for operation in accordance with a listen-before-talk, LBT, procedure, the method comprising, for an upcoming transmission: performing channel sensing to determine an interference level experienced by the wireless communication node; determining a maximum transmission power level for the upcoming transmission responsive to the determined interference level; and selecting at least one of a coding rate and a modulation, to be used for the upcoming transmission, responsive to the determined maximum transmission power level, characterized in that the method further comprises preparing a plurality of transmission packet variants (310, 320, 330, 340) before performing the channel sensing, wherein each transmission packet variant is associated with a respective transmission power level, and wherein selecting at least one of the coding rate and the modulation comprises selecting one transmission packet variant of the plurality of transmission packet variants responsive to the determined maximum transmission power level and the respective transmission power levels of the plurality of transmission packet variants. performing channel sensing to determine an interference level experienced by the wireless communication node; determining a maximum transmission power level for the upcoming transmission responsive to the determined interference level; and selecting at least one of a coding rate and a modulation, to be used for the upcoming transmission, responsive to the determined maximum transmission power level, characterized in that the method further comprises preparing a plurality of transmission packet variants (310, 320, 330, 340) before performing the channel sensing, wherein each transmission packet variant is associated with a respective transmission power level, and wherein selecting at least one of the coding rate and the modulation comprises selecting one transmission packet variant of the plurality of transmission packet variants responsive to the determined maximum transmission power level and the respective transmission power levels of the plurality of transmission packet variants.
A process for the construction of a second chemical plant, which second chemical plant is used for the production of a mixture comprising cyclohexanone and cyclohexanol by hydrogenation of phenol, said process comprising: a) disconnecting a multi-tubular reactor that has been used for producing cyclohexanone by dehydrogenation of cyclohexanol from a first chemical plant, which first chemical plant was used for the production of a mixture comprising cyclohexanone by either: i) oxidation of cyclohexane followed by dehydrogenation of cyclohexanol; or ii) hydration of cyclohexene followed by dehydrogenation of cyclohexanol; b) replacing the cyclohexanol dehydrogenation catalyst inside the tubes of said multi-tubular reactor with phenol hydrogenation catalyst; and c) connecting said multi-tubular reactor to said second chemical plant; wherein "has been used" means that the multi-tubular reactor was designed for the dehydrogenation of cyclohexanol and installed in a chemical plant for the dehydrogenation of cyclohexanol. a) disconnecting a multi-tubular reactor that has been used for producing cyclohexanone by dehydrogenation of cyclohexanol from a first chemical plant, which first chemical plant was used for the production of a mixture comprising cyclohexanone by either: i) oxidation of cyclohexane followed by dehydrogenation of cyclohexanol; or ii) hydration of cyclohexene followed by dehydrogenation of cyclohexanol; i) oxidation of cyclohexane followed by dehydrogenation of cyclohexanol; or ii) hydration of cyclohexene followed by dehydrogenation of cyclohexanol; b) replacing the cyclohexanol dehydrogenation catalyst inside the tubes of said multi-tubular reactor with phenol hydrogenation catalyst; and c) connecting said multi-tubular reactor to said second chemical plant;
An aircraft seat assembly comprising: an aircraft seat including an armrest and at least one spar tube; a bassinet including at least one mount bracket; and an adapter plate for the aircraft seat, comprising: a body positioned exterior of the armrest within a space proximate to the aircraft seat or positioned to share a plane with the armrest, the body comprising: at least one coupler configured to attach to the at least one spar tube of the aircraft seat; and at least one mount point, the at least one mount point of the body configured to attach to the at least one mount bracket of the bassinet, the bassinet positioned within a space proximate to the aircraft seat when coupled to the at least one mount point of the body via the at least one mount bracket. an aircraft seat including an armrest and at least one spar tube; a bassinet including at least one mount bracket; and an adapter plate for the aircraft seat, comprising: a body positioned exterior of the armrest within a space proximate to the aircraft seat or positioned to share a plane with the armrest, the body comprising: at least one coupler configured to attach to the at least one spar tube of the aircraft seat; and at least one mount point, the at least one mount point of the body configured to attach to the at least one mount bracket of the bassinet, the bassinet positioned within a space proximate to the aircraft seat when coupled to the at least one mount point of the body via the at least one mount bracket. a body positioned exterior of the armrest within a space proximate to the aircraft seat or positioned to share a plane with the armrest, the body comprising: at least one coupler configured to attach to the at least one spar tube of the aircraft seat; and at least one mount point, the at least one mount point of the body configured to attach to the at least one mount bracket of the bassinet, the bassinet positioned within a space proximate to the aircraft seat when coupled to the at least one mount point of the body via the at least one mount bracket.
A recombinant T cell receptor heterodimer comprising a modified α chain and a modified β chain wherein (i) said TCR heterodimer maintains the ability to bind to an antigen-MHC complex, and (ii) said modification of the α and β chain is selected from a substitution of position 44 according to the IMGT numbering of a non-modified α and β chain by an amino acid selected from the group consisting of R, D, E, K, L, W, and V that reduces the pairing of said modified α and β chain with a non-modified α and β chain, respectively; and (iii) said α chain of the TCR heterodimer has a variable domain sequence comprising at least the framework regions of a sequence having at least 95 % sequence identity with SEQ ID NO: 1 or 3, and/or said β chain of the TCR heterodimer has a variable domain sequence comprising the framework regions of a sequence having at least 95 % sequence identity with SEQ ID NO: 2 or 4. (i) said TCR heterodimer maintains the ability to bind to an antigen-MHC complex, and (ii) said modification of the α and β chain is selected from a substitution of position 44 according to the IMGT numbering of a non-modified α and β chain by an amino acid selected from the group consisting of R, D, E, K, L, W, and V that reduces the pairing of said modified α and β chain with a non-modified α and β chain, respectively; and (iii) said α chain of the TCR heterodimer has a variable domain sequence comprising at least the framework regions of a sequence having at least 95 % sequence identity with SEQ ID NO: 1 or 3, and/or said β chain of the TCR heterodimer has a variable domain sequence comprising the framework regions of a sequence having at least 95 % sequence identity with SEQ ID NO: 2 or 4.
A device for entering uterus, especially uterus of animals, especially cows, and for sampling, especially for microbiological sampling, which comprises: a tube, where is placed a device for sampling, especially for microbiological sampling, an inserting cap which is at the front end of the tube, wherein the inserting cap is nonpermeable, and is made of a biodegradable material, characterised by that the inserting cap is put onto an outer wall of the tube, is rounded to simplify entering the uterus, is not perforated, and can be taken off at the moment of sampling. a tube, where is placed a device for sampling, especially for microbiological sampling, an inserting cap which is at the front end of the tube, wherein the inserting cap is nonpermeable, and is made of a biodegradable material, characterised by that the inserting cap is put onto an outer wall of the tube, is rounded to simplify entering the uterus, is not perforated, and can be taken off at the moment of sampling.
A fault diagnosis method for a vehicle, comprising the steps of: Detecting, by a controller, whether a reference engineering code has been generated, in which the reference engineering code is generated in case an error count, occurring when any of specifications of a part falls out of normal range, is detected; Measuring, by the controller, a time for which the reference engineering code has been generated, if the reference engineering code has been generated as a result of performing the detecting step; Calculating, by the controller, a percentage of the reference engineering code, based on both the time for which the reference engineering code has been generated and a preset time, after the measuring step; Storing, by the controller, the reference engineering code and the percentage of the reference engineering code, after the calculating step; and when a request signal is received from a diagnostic device, providing, by the controller, an output signal that includes the stored reference engineering code and the stored percentage of the reference engineering code to the diagnostic device, after the storing step, wherein the preset time is a time for which the reference engineering code has been generated until a diagnostic trouble code is fixed. Detecting, by a controller, whether a reference engineering code has been generated, in which the reference engineering code is generated in case an error count, occurring when any of specifications of a part falls out of normal range, is detected; Measuring, by the controller, a time for which the reference engineering code has been generated, if the reference engineering code has been generated as a result of performing the detecting step; Calculating, by the controller, a percentage of the reference engineering code, based on both the time for which the reference engineering code has been generated and a preset time, after the measuring step; Storing, by the controller, the reference engineering code and the percentage of the reference engineering code, after the calculating step; and when a request signal is received from a diagnostic device, providing, by the controller, an output signal that includes the stored reference engineering code and the stored percentage of the reference engineering code to the diagnostic device, after the storing step, wherein the preset time is a time for which the reference engineering code has been generated until a diagnostic trouble code is fixed.
A band (10, 110, 210) configured for holding implements and tools when the band is secured around an arm of a user, the band comprising: a body delimited by oppositely-disposed first and second longitudinal ends (14, 16) and by first and second edges (22, 24) that are between the first and second longitudinal ends and spaced apart from each other in a lateral direction of the body, the first and second edges each having arcuate portions and, upon fastening the first and second longitudinal ends together, the body acquires a circular shape having first and second axial ends that are defined respectively by the first and second edges, the first axial end being larger than the second axial end; means (18, 20) for releasably securing the first and second longitudinal ends together; sleeves (28, 30, 32) located on an outer surface of the body and arranged side-by-side in a row so that each sleeve extends laterally across the outer surface, each of the sleeves having opposite ends that are open to permit an implement or tool to be placed therein from either of the opposite ends and protrude from both of the opposite ends; and characterized in that the band further comprises: straps (40, 42, 44) secured to the body and sized to accommodate and secure implements or tools of different sizes, at least some of the straps spanning one or more of the sleeves, the straps being disposed at different angles relative to the first and second edges of the body so as not to be parallel to each other. a body delimited by oppositely-disposed first and second longitudinal ends (14, 16) and by first and second edges (22, 24) that are between the first and second longitudinal ends and spaced apart from each other in a lateral direction of the body, the first and second edges each having arcuate portions and, upon fastening the first and second longitudinal ends together, the body acquires a circular shape having first and second axial ends that are defined respectively by the first and second edges, the first axial end being larger than the second axial end; means (18, 20) for releasably securing the first and second longitudinal ends together; sleeves (28, 30, 32) located on an outer surface of the body and arranged side-by-side in a row so that each sleeve extends laterally across the outer surface, each of the sleeves having opposite ends that are open to permit an implement or tool to be placed therein from either of the opposite ends and protrude from both of the opposite ends; and characterized in that the band further comprises: straps (40, 42, 44) secured to the body and sized to accommodate and secure implements or tools of different sizes, at least some of the straps spanning one or more of the sleeves, the straps being disposed at different angles relative to the first and second edges of the body so as not to be parallel to each other.