mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing FRP, Fiber Reinforced Plastic, in which a preform made of a reinforcing fiber base material is disposed in a cavity of a mold , a resin injection path and a suction path for sucking at least air are provided to said mold , and resin from said resin injection path is made to flow in a direction toward said suction path in said cavity to be impregnated into said preform wherein a high flow resistance region for partially making said resin flowing in said preform hardly flow is formed in said preform itself, and a flow front of said resin flowing in said direction toward said suction path through said high flow resistance region is controlled so as to settle within a permitted region that has been predetermined relatively to a shape of a product to be molded, wherein the high flow resistance region is formed by reducing the thickness of the preform at the high flow resistance region by the mold , or is formed by enhancing the density of arrangement of reinforcing fibers in the preform at the position of the high flow resistance region in advance, wherein said resin injection path is formed from a plurality of resin injection ports opened facing one surface of said preform disposed in said cavity , said high flow resistance region is formed as a high flow resistance region for partially making said resin flowing in said preform from an inside part of said preform toward an outer circumference part of said preform hardly flow so as to extend along said outer circumference part of said preform at a position outside a molded product relatively to an outline of said product to be molded, and wherein. an air trap region for sucking air discharged through at least said high flow resistance region is formed by said mold at a position outside said high flow resistance region of said preform so as to extend along said high flow resistance region .
Fire damper with a housing having at least one housing wall and with a flap leaf , preferably consisting of calcium silicate, preferably mounted in the middle in relation to the housing cross-section, such as to be capable of pivoting about a rotation axis between an open position and a closed position and comprising two pivotably mounted flap surfaces connected to one another by a circumferential face surface , wherein the rotation axis divides the flap leaf into two flap leaf halves, wherein, in order to mount the flap leaf , two opposed mounting points are provided, forming the rotation axis , and wherein the flap leaf can be pivoted, against the resetting force of a spring element, out of its closed position into its open position, oriented parallel to the direction of flow , wherein, in the interior of the housing, two protective devices are provided in order to screen the face surfaces in the open position of the flap leaf , which are each provided extending along the face surface concerned in the open position of the flap leaf , characterised in that each protective device , with the face surface assigned to it, forms a cavity space , sealed against the interior of the housing by means of at least one cold seal , such that each of the two face surfaces , in the open position of the flap leaf , are screened entirely by the protective device assigned to them.
A non-therapeutic method of disinfecting a surface in need of disinfecting within a volumetric space, comprising the steps of: a) dispersing into the volumetric space a multiplicity of droplets of a first aqueous composition comprising a first peracid reactant compound that is either a peroxide compound or an organic acid compound capable of reacting with a peroxide compound to form a peracid; b) allowing a time sufficient for the first aqueous composition to distribute throughout the volumetric space, and to deposit and coalesce into a layer upon the surface; c) dispersing into the volumetric space a multiplicity of droplets of a second aqueous composition comprising a second peracid reactant compound that is the other of the first peracid reactant compound; and d) allowing a second time sufficient for the droplets of the second aqueous composition to deposit onto the coalesced layer of the first aqueous composition to form a reaction layer, thereby forming a peracid in situ on the reaction layer and disinfecting the surface, wherein the multiplicity of droplets of the first aqueous composition and/or the second aqueous composition are electrostatically charged. a) dispersing into the volumetric space a multiplicity of droplets of a first aqueous composition comprising a first peracid reactant compound that is either a peroxide compound or an organic acid compound capable of reacting with a peroxide compound to form a peracid; b) allowing a time sufficient for the first aqueous composition to distribute throughout the volumetric space, and to deposit and coalesce into a layer upon the surface; c) dispersing into the volumetric space a multiplicity of droplets of a second aqueous composition comprising a second peracid reactant compound that is the other of the first peracid reactant compound; and d) allowing a second time sufficient for the droplets of the second aqueous composition to deposit onto the coalesced layer of the first aqueous composition to form a reaction layer, thereby forming a peracid in situ on the reaction layer and disinfecting the surface,
A grating forming method, comprising: positioning a first portion of a first substrate retained on a platen in a path of an ion beam , the first substrate having a grating material disposed thereon, the ion beam configured to contact the grating material at an ion beam angle θ relative to a surface normal of the first substrate and to form one or more first gratings in the grating material ; and rotating the first substrate retained on the platen about an axis of the platen resulting in a first rotation angle φ between the projection of the ion beam on the substrate and a grating vector of the one or more first gratings; and, after rotating, forming the one or more first gratings having a first slant angle θ' relative to the surface normal of the first substrate. positioning a first portion of a first substrate retained on a platen in a path of an ion beam , the first substrate having a grating material disposed thereon, the ion beam configured to contact the grating material at an ion beam angle θ relative to a surface normal of the first substrate and to form one or more first gratings in the grating material ; and rotating the first substrate retained on the platen about an axis of the platen resulting in a first rotation angle φ between the projection of the ion beam on the substrate and a grating vector of the one or more first gratings; and, after rotating, forming the one or more first gratings having a first slant angle θ' relative to the surface normal of the first substrate.
A receiving station for an aircraft comprising; a receiving bed , wherein the receiving bed comprises at least a compressor unit , an upper layer , and a lower layer ; wherein the upper layer includes at least one air cushion ; wherein the air cushion of the upper layer is configured to receive at least a part of an aircraft ; wherein at least one of the air cushion of the upper layer and the lower layer is configured to receive air from the compressor unit ; wherein the lower layer is configured to float the receiving bed by blowing air through a plurality of outlet ; and a drive mechanism , wherein the drive mechanism includes at least one of a drive unit and a direction control unit ; wherein the drive mechanism is configured to move the receiving bed in at least one of a linear direction and a rotational direction ; wherein the receiving station includes a controller unit; wherein the controller unit is configured to receive at least an information from the receiving aircraft and an information from the receiving station; wherein the information received from the aircraft includes at least one of a flight plan of the aircraft , a weight of the aircraft, a center of gravity of the aircraft , and the part of the aircraft to receive; wherein the controller unit is configured to calculate one or more required parameter based on at least the information from the aircraft ; wherein the controller unit is configured to compare the required parameter against a corresponding limit of the parameter ; wherein the required parameter is one or more of a required pressure of the air cushion , a required pressure of the lower layer , a required acceleration, a required braking, and a required rotation; wherein the limit parameter includes at least one of a pressure limit of the air cushion , a pressure limit of the lower layer , an acceleration limit, a braking limit, and a rotation limit; wherein the controller unit is configured to transfer a data to at least the aircraft when at least one of the required parameter is greater than the corresponding limit parameter ; wherein the aircraft is configured to modify the flight plan of the aircraft based on at least the data transferred to the aircraft ; wherein the controller is configured to repeat the steps until the required parameter is less than or equal to the corresponding limit parameter ; wherein the controller unit is configured to control at least one of the receiving bed and the drive mechanism when the required parameter is less than or equal to the corresponding limit parameter .
A computer implemented method for training a segmentation correction model, the method comprising: performing an iterative model training process over a plurality of iterations, wherein each iteration comprises: providing an initial segmentation estimate for an image to a plurality of human annotators via an annotation interface , wherein the initial segmentation estimate identifies one or more anatomical areas of interest within the image; automatically monitoring interactions with the annotation interface to record annotation information comprising (i) segmentation corrections made to the initial segmentation estimate by the annotators via the annotation interface , and (ii) interactions with the annotation interface performed by the annotators while making the corrections, wherein an annotated correction is formed by combining the initial segmentation estimate with the interactions , motions to adjust the initial estimate , and an effort measurement indicative of an amount of effort expended by the annotators in making the corrections; training, by use of the annotated correction , a base segmentation machine learning model to automatically create a base segmentation based on the image; and training, by use of a difference between the initial segmentation estimate and the annotated correction , a segmentation correction machine learning model to automatically perform the segmentation corrections based on the image. providing an initial segmentation estimate for an image to a plurality of human annotators via an annotation interface , wherein the initial segmentation estimate identifies one or more anatomical areas of interest within the image; automatically monitoring interactions with the annotation interface to record annotation information comprising (i) segmentation corrections made to the initial segmentation estimate by the annotators via the annotation interface , and (ii) interactions with the annotation interface performed by the annotators while making the corrections, wherein an annotated correction is formed by combining the initial segmentation estimate with the interactions , motions to adjust the initial estimate , and an effort measurement indicative of an amount of effort expended by the annotators in making the corrections; training, by use of the annotated correction , a base segmentation machine learning model to automatically create a base segmentation based on the image; and training, by use of a difference between the initial segmentation estimate and the annotated correction , a segmentation correction machine learning model to automatically perform the segmentation corrections based on the image.
A wearable audio device that fits around, on, in, or near an ear of a user and that is configured to radiate acoustic energy into or towards the ear of the user, the wearable audio device comprising: a ground plane ; an elliptically polarized spiral monopole antenna coupled to the ground plane, the antenna comprising: a ring ; and a plurality of arms , each arm of the plurality of arms being coupled between the ring and the ground plane; and an enclosure enclosing the ground plane, and configured to be coupled to the ear of the user. a ground plane ; an elliptically polarized spiral monopole antenna coupled to the ground plane, the antenna comprising: a ring ; and a plurality of arms , each arm of the plurality of arms being coupled between the ring and the ground plane; and a ring ; and a plurality of arms , each arm of the plurality of arms being coupled between the ring and the ground plane; and an enclosure enclosing the ground plane, and configured to be coupled to the ear of the user.
An electrical connector for a power cord comprising: a plug housing having at least one elongated electrical power terminal arranged inside a cavity of the plug housing , at least one thermal sensor and at least one elongated heat transfer member , wherein the heat transfer member comprises first coupling means for mechanically and thermally connecting the electrical power terminal to the elongated heat transfer member on a first end and wherein the elongated heat transfer member comprises second coupling means for mechanically and thermally connecting thermal sensor to the elongated heat transfer member on a second end , characterized in that the elongated heat transfer member protrudes through an opening in the cavity such that the first end of the elongated heat transfer member is located inside the cavity and the second end is located outside the cavity .
A method comprising: receiving, at a processing module of a device , audio information detected by a microphone of the device; restricting, by the processing module, access by a device processor of the device to the audio information received by the processing module, wherein the device processor is separate to the processing module; receiving, by the processing module, data indicating that the device processor is authorized to access the audio information detected by the microphone during a limited period of time; in response to receiving data indicating that the device processor is authorized to access the audio information detected by the microphone during the limited period of time, providing the audio information to the device processor; monitoring, by the processing module, the audio information detected by the microphone during the limited period of time for the presence of a hotword; and after the end of the limited period of time, restricting, by the processing module, access by the device processor to the audio information detected by the microphone. receiving, at a processing module of a device , audio information detected by a microphone of the device; restricting, by the processing module, access by a device processor of the device to the audio information received by the processing module, wherein the device processor is separate to the processing module; receiving, by the processing module, data indicating that the device processor is authorized to access the audio information detected by the microphone during a limited period of time; in response to receiving data indicating that the device processor is authorized to access the audio information detected by the microphone during the limited period of time, providing the audio information to the device processor; monitoring, by the processing module, the audio information detected by the microphone during the limited period of time for the presence of a hotword; and after the end of the limited period of time, restricting, by the processing module, access by the device processor to the audio information detected by the microphone.
A method of a user equipment, UE, for requesting to allocate a discovery resource, the method comprising: transmitting a message for requesting at least one discovery resource to a base station; and receiving a message including information on at least one discovery resource allocated to the UE from the base station, characterized in that the message for requesting the at least one discovery resource includes information indicating a number of at least one discovery message for which the UE requests to allocate the at least one discovery resource, and wherein the at least one discovery resource allocated to the UE is indicated by a time index and a frequency index within a dedicated discovery resource pool. transmitting a message for requesting at least one discovery resource to a base station; and receiving a message including information on at least one discovery resource allocated to the UE from the base station, characterized in that the message for requesting the at least one discovery resource includes information indicating a number of at least one discovery message for which the UE requests to allocate the at least one discovery resource, and wherein the at least one discovery resource allocated to the UE is indicated by a time index and a frequency index within a dedicated discovery resource pool.
A composition for forming α-gel comprising: (A) 25 to 50 mass% of 1 or more higher aliphatic alcohols having 16 or more carbon atoms and/or higher fatty acids, (B) 40 to 70 mass% of polyoxyethylene sterol ether represented by the following formula (I): wherein in the formula I, R represents a cholesterol and/or a phytosterol residue, and n represents an integer of 5 to 20, and (C) 5 to 20 mass% of polyoxyethylene dialkyl ester and/or ether represented by the following formula (II): wherein in the formula II, R1 and R2 are a straight-chain aliphatic acid residue or a straight-chain aliphatic alcohol residue having 16 to 24 carbon atoms, and n is an integer of 4 to 15, and generated by adding water. (A) 25 to 50 mass% of 1 or more higher aliphatic alcohols having 16 or more carbon atoms and/or higher fatty acids, (B) 40 to 70 mass% of polyoxyethylene sterol ether represented by the following formula (I): wherein in the formula I, R represents a cholesterol and/or a phytosterol residue, and n represents an integer of 5 to 20, and (C) 5 to 20 mass% of polyoxyethylene dialkyl ester and/or ether represented by the following formula (II): wherein in the formula II, R1 and R2 are a straight-chain aliphatic acid residue or a straight-chain aliphatic alcohol residue having 16 to 24 carbon atoms, and n is an integer of 4 to 15, and generated by adding water.
A liquid dispenser, including: a container configured to store liquid and having an upper opening; a lid seated over the upper opening to close the upper opening and having a first hole ; a pump having an inlet to suction liquid stored in the container and an outlet to discharge the liquid through the first hole ; a metal plate provided at a bottom of the container and exposed through a Peltier hole or opening in the bottom of the container to directly contact liquid in the container ; a base to support the bottom of the container ; and, a Peltier device provided in the base , wherein the metal plate contacts the Peltier device and the liquid stored in the container . a container configured to store liquid and having an upper opening; a lid seated over the upper opening to close the upper opening and having a first hole ; a pump having an inlet to suction liquid stored in the container and an outlet to discharge the liquid through the first hole ; a metal plate provided at a bottom of the container and exposed through a Peltier hole or opening in the bottom of the container to directly contact liquid in the container ; a base to support the bottom of the container ; and, a Peltier device provided in the base , wherein the metal plate contacts the Peltier device and the liquid stored in the container .
A method for operating a cement clinker line , the method comprising at least: - converting a CaCO 3 comprising raw meal into calcined raw meal and at least CO 2 and/or sintering calcined raw meal in a kiln , thereby obtaining at least cement clinker and optionally CO 2 ; - separating the CO 2 from the calcined raw meal and/or the clinker , characterized in that it further comprises the steps of (i) dissolving at least a portion of the CO 2 in a first carboxylic acid and/or a first sulfonic acid and/or liquifying at least a portion of the CO 2 ; (ii) reducing the dissolved and/or liquified CO 2 electrolytically at a cathode of an electrolytic cell to a second carboxylic acid, wherein the first carboxylic acid and/or first sulfonic acid is used as an electrolyte. - converting a CaCO 3 comprising raw meal into calcined raw meal and at least CO 2 and/or sintering calcined raw meal in a kiln , thereby obtaining at least cement clinker and optionally CO 2 ; - separating the CO 2 from the calcined raw meal and/or the clinker , characterized in that it further comprises the steps of (i) dissolving at least a portion of the CO 2 in a first carboxylic acid and/or a first sulfonic acid and/or liquifying at least a portion of the CO 2 ; (ii) reducing the dissolved and/or liquified CO 2 electrolytically at a cathode of an electrolytic cell to a second carboxylic acid, wherein the first carboxylic acid and/or first sulfonic acid is used as an electrolyte. (i) dissolving at least a portion of the CO 2 in a first carboxylic acid and/or a first sulfonic acid and/or liquifying at least a portion of the CO 2 ; (ii) reducing the dissolved and/or liquified CO 2 electrolytically at a cathode of an electrolytic cell to a second carboxylic acid, wherein the first carboxylic acid and/or first sulfonic acid is used as an electrolyte.
A cathode block based on carbon for an electrolysis cell for producing aluminium comprising at least one groove for receiving at least one cathode bar, wherein the at least one groove has at least one recess extending at least portion-wise in the longitudinal direction thereof, with at least one undercut configuration, wherein the recess with undercut configuration is defined as a shape which has the result that after filling of the recess with for example liquid cast iron the set cast iron cannot be removed from the recess without destroying the shape, wherein the at least one recess is disposed in the groove bottom and/or in the radius of the groove.