mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a wind turbine rotor blade, said method comprising the step of - manufacturing an elongated preform having a length of at least 1 meter and a constant cross section, wherein the preform is manufactured using a pultrusion process comprising the steps of - providing a fibre material such as fibre rovings , - contacting the fibre material with a heated binding agent to form a pultrusion string , wherein the binding agent is present in an amount of 0.1-15 wt% relative to the weight of the fibre material, - pulling the pultrusion string through a die having a predetermined cross section, and - cutting the pultrusion string to obtain the preform , wherein said method of manufacturing a wind turbine rotor blade further comprises the steps of - embedding the preform within one or more parts of the blade, - infusing a resin into said one or more blade parts containing the preform , and - assembling the rotor blade including said one or more blade parts. - manufacturing an elongated preform having a length of at least 1 meter and a constant cross section, wherein the preform is manufactured using a pultrusion process comprising the steps of - providing a fibre material such as fibre rovings , - contacting the fibre material with a heated binding agent to form a pultrusion string , wherein the binding agent is present in an amount of 0.1-15 wt% relative to the weight of the fibre material, - pulling the pultrusion string through a die having a predetermined cross section, and - cutting the pultrusion string to obtain the preform , - providing a fibre material such as fibre rovings , - contacting the fibre material with a heated binding agent to form a pultrusion string , wherein the binding agent is present in an amount of 0.1-15 wt% relative to the weight of the fibre material, - pulling the pultrusion string through a die having a predetermined cross section, and - cutting the pultrusion string to obtain the preform , - embedding the preform within one or more parts of the blade, - infusing a resin into said one or more blade parts containing the preform , and - assembling the rotor blade including said one or more blade parts.
A lawn mower , equipped with a chassis and a cover (12b, 12bl, 12b2) displaceably attached to the chassis through suspension mechanisms , each suspension mechanism comprising: a shaft installed between the chassis and the cover (12b, 12b1, 12b2) so that an axis of the shaft lies in a gravity axis direction, wherein an upper half of the shaft passes through a through hole (12b21) formed in the cover (12b, 12b1, 12b2) to extend upward of the cover (12b, 12b1, 12b2) and wherein a lower half of the shaft extends toward the chassis ; the lawn mower being characterised by a guide member having a plate member provided on the lower half of the shaft and multiple plates installed above and below the plate member in gravity axis direction to be slidingly contactable with the plate member , and respectively formed at their centers with through holes for passage of the shaft ; a compression spring of roughly frustoconical shape for biasing the cover (12b, 12b1, 12b2) toward the chassis , wherein an upper seating edge of the compression spring is attached to the upper half of the shaft and wherein a lower seating edge of the compression spring is attached to a periphery of the through hole (12b21) of the cover (12b, 12b1, 12b2); and an elastic member of roughly frustoconical shape formed at its center with a through hole and installed in gravity axis direction between the cover (12b, 12b1, 12b2) and the guide member to pass the shaft through the through hole (12b21);wherein the cover (12b, 12b2) is configured to be formed in roughly frustoconical shape similar to the elastic member . a shaft installed between the chassis and the cover (12b, 12b1, 12b2) so that an axis of the shaft lies in a gravity axis direction, wherein an upper half of the shaft passes through a through hole (12b21) formed in the cover (12b, 12b1, 12b2) to extend upward of the cover (12b, 12b1, 12b2) and wherein a lower half of the shaft extends toward the chassis ; the lawn mower being characterised by a guide member having a plate member provided on the lower half of the shaft and multiple plates installed above and below the plate member in gravity axis direction to be slidingly contactable with the plate member , and respectively formed at their centers with through holes for passage of the shaft ; a compression spring of roughly frustoconical shape for biasing the cover (12b, 12b1, 12b2) toward the chassis , wherein an upper seating edge of the compression spring is attached to the upper half of the shaft and wherein a lower seating edge of the compression spring is attached to a periphery of the through hole (12b21) of the cover (12b, 12b1, 12b2); and an elastic member of roughly frustoconical shape formed at its center with a through hole and installed in gravity axis direction between the cover (12b, 12b1, 12b2) and the guide member to pass the shaft through the through hole (12b21);wherein the cover (12b, 12b2) is configured to be formed in roughly frustoconical shape similar to the elastic member .
A method for finishing a supplied building panel made of a wood-based material, especially MDF or HDF, with a lower side and an upper side featuring a decorative pattern, said upper side being sealed by applying an abrasion-resistant layer and a relief being embossed into at least the upper side , comprising the steps: (a) applying a decorative paper to the upper side and an overlay paper to the decorative paper as an abrasion-resistant layer , (b) providing the lower side with a backing layer , (c) feeding the structure prepared in this way to a short-cycle press and pressing it together at a pressure and a temperature, (d) during pressing, embossing the relief into the upper side at a depth (T), said relief being embossed as at least one strip-shaped depression with two opposite side walls (5.1, 5.2) and a connecting bottom wall (5.3), characterised in that before applying the decorative paper (e) applying a tempering agent to the upper side and (f) treating the upper side with superheated steam, at least in the areas in which the relief is to be embossed, to achieve a surface temperature of 30 - 50 °C. (a) applying a decorative paper to the upper side and an overlay paper to the decorative paper as an abrasion-resistant layer , (b) providing the lower side with a backing layer , (c) feeding the structure prepared in this way to a short-cycle press and pressing it together at a pressure and a temperature, (d) during pressing, embossing the relief into the upper side at a depth (T), said relief being embossed as at least one strip-shaped depression with two opposite side walls (5.1, 5.2) and a connecting bottom wall (5.3), (e) applying a tempering agent to the upper side and (f) treating the upper side with superheated steam, at least in the areas in which the relief is to be embossed, to achieve a surface temperature of 30 - 50 °C.
A plant of the species Cucumis melo, comprising in its genome a genetic element, said genetic element comprises a Cucumber Vein Yellowing Virus (CVYV)-resistance conferring Quantitative Trait Locus (QTL) from melon Cuc6491 with accession number NCIMB 41582, and is genetically linked to at least one molecular marker, wherein said marker is selected from a group consisting of E13/M48-259.69-P2, amplification primers SEQ ID Nos: 1 and 2, mobility 259-260 bp; E16/M48-377.36-P2, amplification primers SEQ ID Nos: 3 and 4, mobility 377-378 bp; E13/M48-261.30-P2, amplification primers SEQ ID Nos: 5 and 6, mobility 261-262 bp; and E26/M62-076.8-P2, amplification primers SEQ ID NOs: 7 and 8, mobility 76-77 bp, and wherein said plant is resistant to CVYV without the occurrence of necrotic symptoms.
A control system for a vehicle configured to receive a brake signal indicative of a brake force demand of a braking system of the vehicle and in dependence thereon to cause a driveline of the vehicle to switch from operation in a second configuration, wherein a first group of one or more wheels and not a second group of one or more wheels are connected to the driveline, to operation in a first configuration, wherein the first group of one or more wheels in addition the second group of one or more wheels are connected to the driveline, wherein the control system is configured to control an electric machine coupled to the driveline to provide at least some of the brake force demand by applying a brake force to the first group of one or more wheels and the second group of one or more wheels if the first group of one or more wheels and second group of one or more wheels are connected to the driveline and the driveline is operating in the first configuration.
Injection valve for an internal combustion engine, having a fluid inlet line which is designed to define a flow of a fluid along a main flow direction , wherein the fluid inlet line has a catching section which is designed to conduct the fluid along a direction which is oriented at least partially oppositely to the main flow direction , wherein the fluid inlet line has a first bend , which is arranged so as to connect an inlet section of the fluid inlet line to the catching section , and wherein the fluid inlet line has a second bend , which is arranged so as to connect the catching section to an outlet section of the fluid inlet line , wherein the fluid inlet line is designed such that the catching section axially overlaps the inlet section and the outlet section of the fluid inlet line , wherein the fluid inlet line is designed such that floating particles carried by the fluid which is conducted through the fluid inlet line are deposited in the fluid inlet line in a depositing region of the first bend , characterized in that the fluid inlet line has a flow element which is arranged at a given position of the first bend , and wherein the flow element is designed to define a catching region for the floating particles such that, once they have entered the catching region, the floating particles are held back from the flow of the fluid by the flow element .
An optical fiber interrogator for interrogating optical fiber comprising fiber Bragg gratings ("FBGs") , the interrogator comprising: (a) a light source operable to emit phase coherent light; (b) amplitude modulation circuitry optically coupled to the light source and operable to generate one or more light pulses from the light; (c) an optical splitter optically coupled to the amplitude modulation circuitry and being configured to split a light pulse received from the amplitude modulation circuitry into a pair of light pulses; (d) an optical delayer optically coupled to the optical splitter and configured to introduce a delay to one light pulse of the pair of light pulses relative to the other light pulse of the pair of light pulses; (e) control circuitry comprising a controller, communicatively coupled to the amplitude modulation circuitry; and (f) a phase modulator optically coupled to the amplitude modulation circuitry and operable to introduce a phase shift to at least one of the light pulses, (g) wherein the control circuitry is configured to perform a method for interrogating the optical fiber comprising: generating a light pulse by using the amplitude modulation circuitry to modulate light emitted by the light source, wherein the generated light pulse is split into a pair of light pulses by the optical splitter, and wherein one of the light pulses is delayed relative to the other light pulse by the optical delayer; characterized in that after one of the light pulses is delayed relative to the other light pulse, phase shifting each of the light pulses by using the phase modulator. (a) a light source operable to emit phase coherent light; (b) amplitude modulation circuitry optically coupled to the light source and operable to generate one or more light pulses from the light; (c) an optical splitter optically coupled to the amplitude modulation circuitry and being configured to split a light pulse received from the amplitude modulation circuitry into a pair of light pulses; (d) an optical delayer optically coupled to the optical splitter and configured to introduce a delay to one light pulse of the pair of light pulses relative to the other light pulse of the pair of light pulses; (e) control circuitry comprising a controller, communicatively coupled to the amplitude modulation circuitry; and (f) a phase modulator optically coupled to the amplitude modulation circuitry and operable to introduce a phase shift to at least one of the light pulses, (g) wherein the control circuitry is configured to perform a method for interrogating the optical fiber comprising: generating a light pulse by using the amplitude modulation circuitry to modulate light emitted by the light source, wherein the generated light pulse is split into a pair of light pulses by the optical splitter, and wherein one of the light pulses is delayed relative to the other light pulse by the optical delayer; characterized in that after one of the light pulses is delayed relative to the other light pulse, phase shifting each of the light pulses by using the phase modulator.
A quick release adapter with a gripping element interface for a gripping device , for purposes of adapting a gripping element to a slide or a swivel arm of the gripping device , - wherein the quick-release adapter has a base body , which can be attached to the slide , - wherein an at least one-piece clamping spindle is arranged in the base body , - wherein at least two clamping sleeves , which can be inserted into recesses of the base body and have a rear grip , are arranged on the gripping element , - wherein the clamping spindle has one clamping flank per clamping sleeve , - wherein the clamping flanks of the clamping spindle can be brought into engagement with the rear grips of the clamping sleeves by at least one translational movement, and - wherein a rotational movement is always superimposed on the translational movement of the clamping spindle , or a part of the clamping spindle. - wherein the quick-release adapter has a base body , which can be attached to the slide , - wherein an at least one-piece clamping spindle is arranged in the base body , - wherein at least two clamping sleeves , which can be inserted into recesses of the base body and have a rear grip , are arranged on the gripping element , - wherein the clamping spindle has one clamping flank per clamping sleeve , - wherein the clamping flanks of the clamping spindle can be brought into engagement with the rear grips of the clamping sleeves by at least one translational movement, and - wherein a rotational movement is always superimposed on the translational movement of the clamping spindle , or a part of the clamping spindle.
A method for manufacturing an array substrate of a fringe-field switch, FFS, type thin film transistor liquid crystal display, TFT-LCD, comprising the steps of: step 100: forming a semiconductor film and an impurity-doped semiconductor film on a transparent substrate sequentially, then patterning the stack of the semiconductor film and the impurity-doped semiconductor film so as to form patterns including a semiconductor layer and an impurity-doped semiconductor layer; step 200: forming a first transparent conductive film and a first metal film , and patterning the stack of the first transparent conductive film and the first metal film to form patterns including source electrodes , drain electrodes , the impurity-doped semiconductor layer, TFT channels , data lines and pixel electrodes ; step 300: depositing an insulating film , and patterning the insulating film so as to form patterns including connection holes for the data lines in the PAD region; and step 400: forming a second transparent conductive film and a second metal film , and patterning the stack of the second transparent conductive film and the second metal film so as to form patterns including gate lines , gate electrodes and common electrodes . step 100: forming a semiconductor film and an impurity-doped semiconductor film on a transparent substrate sequentially, then patterning the stack of the semiconductor film and the impurity-doped semiconductor film so as to form patterns including a semiconductor layer and an impurity-doped semiconductor layer; step 200: forming a first transparent conductive film and a first metal film , and patterning the stack of the first transparent conductive film and the first metal film to form patterns including source electrodes , drain electrodes , the impurity-doped semiconductor layer, TFT channels , data lines and pixel electrodes ; step 300: depositing an insulating film , and patterning the insulating film so as to form patterns including connection holes for the data lines in the PAD region; and step 400: forming a second transparent conductive film and a second metal film , and patterning the stack of the second transparent conductive film and the second metal film so as to form patterns including gate lines , gate electrodes and common electrodes .
A plumbing arrangement element configured to be mounted to a structure of a building comprising a vertical waste pipe system , the plumbing arrangement element being configured to support a toilet bowl having a waste outlet, wherein the plumbing arrangement element comprises a vertical support structure configured to be mounted stationarily to the structure of the building; a movable unit , the movable unit comprising a structure to which is attachable the toilet bowl; and a waste pipe assembly for conducting waste from the toilet bowl to the vertical waste pipe system of the building, the waste pipe assembly comprising a movable waste pipe arrangement , and the movable waste pipe arrangement comprising a waste pipe fitting for connecting the waste pipe assembly to the waste outlet of the toilet bowl; characterized in that the waste pipe assembly has an upper end and a lower end , wherein the upper end is connectable to the vertical waste pipe system of the building above the plumbing arrangement element, and the lower end is connectable to the vertical waste pipe system below the plumbing arrangement element; the movable unit and the movable waste pipe arrangement are configured to be adjustable with respect to the vertical support structure in the vertical direction, the vertical support structure forming a guide for the adjustment of the movable unit in the vertical direction, the plumbing arrangement element thereby being configured to allow the height adjustment of the structure to which is attachable the toilet bowl; and wherein the waste pipe assembly comprises a stationary vertical upper part that is stationary with respect to the vertical support structure, and a pipe fitting configured to slidably receive a part of one of the stationary vertical upper part and the movable waste pipe arrangement , thereby connecting the stationary vertical upper part and the movable waste pipe arrangement so that the total length of the waste pipe assembly is adjustable in the vertical direction.
A method for producing anhydrous tiotropium bromide having monoclinic elementary cell parameters of a = 9.94 Å, b =11,95 Å, c = 18,57 Å, β = 108,47° determined by X-ray analysis, characterized in comprising steps of I. Dissolving tiotropium bromide in dichloromethane, II. Stirring the mixture at a temperature between 1 and 15 °C, III. Removing the solvent in the mixture under low pressure, IV. Drying the solid substance obtained under low pressure. V. Dissolving the dried solid substance in water, VI. Lyophilizing the obtained solution (dried under low pressure at a temperature in the range of 0 and -100 °C), VII. Suspending the solid substance obtained as a result of lyophilisation by using solvents having a polarity index value in the range of 0.01 and 5.0, VIII. Heating the suspension to a temperature in the range of 60 and 95 °C, IX. Separating the crystals precipitated by filtration method, X. Drying the obtained crystals under low pressure. I. Dissolving tiotropium bromide in dichloromethane, II. Stirring the mixture at a temperature between 1 and 15 °C, III. Removing the solvent in the mixture under low pressure, IV. Drying the solid substance obtained under low pressure. V. Dissolving the dried solid substance in water, VI. Lyophilizing the obtained solution (dried under low pressure at a temperature in the range of 0 and -100 °C), VII. Suspending the solid substance obtained as a result of lyophilisation by using solvents having a polarity index value in the range of 0.01 and 5.0, VIII. Heating the suspension to a temperature in the range of 60 and 95 °C, IX. Separating the crystals precipitated by filtration method, X. Drying the obtained crystals under low pressure.
Hole saw adapter comprising an inner axially displaceable holding part , an external displacement part , an adapter body with a first end equipped with a spindle for fastening to a drive unit, such as a drilling machine, and a second end to receive a hole saw and a central drill , in which the adapter body is extended and equipped with a longitudinally running axial slit , the central drill is releasably fastened to the inner axially displaceable holding part , said inner axially displaceable holding part is displaceable in the longitudinally running axial slit in the adapter body and is connected to the external displacement part , wherein the external displacement part is formed as a ring or a casing that is arranged to be displaced longitudinally along the axial slit and surrounds the adapter body , and is arranged for forced axial displacement of the axially displaceable holding part and the central drill in the longitudinally running axial slit to push out a core that remains in the hole saw after drilling, characterized in that the longitudinally running axial slit is at least partially formed as a crosswise through-running open slit in the adapter body for receipt of a tool that can be completely pushed through the adapter body , and the displacement part comprises a partial cover that lies externally to the longitudinally running slit arranged to function as a contact surface for said tool for enforced displacement of the displacement part along the longitudinally running slit . the adapter body is extended and equipped with a longitudinally running axial slit , the central drill is releasably fastened to the inner axially displaceable holding part , said inner axially displaceable holding part is displaceable in the longitudinally running axial slit in the adapter body and is connected to the external displacement part , wherein the external displacement part is formed as a ring or a casing that is arranged to be displaced longitudinally along the axial slit and surrounds the adapter body , and is arranged for forced axial displacement of the axially displaceable holding part and the central drill in the longitudinally running axial slit to push out a core that remains in the hole saw after drilling, characterized in that the longitudinally running axial slit is at least partially formed as a crosswise through-running open slit in the adapter body for receipt of a tool that can be completely pushed through the adapter body , and the displacement part comprises a partial cover that lies externally to the longitudinally running slit arranged to function as a contact surface for said tool for enforced displacement of the displacement part along the longitudinally running slit .