mhurhangee/patent-ind-claim-en huggingface dataset:
Water spout for draining a channel in the region of a wall former of a building, the wall former being associated with a windowsill , and the water spout comprising a collecting portion for collecting water that has entered the channel , characterised in that the water spout comprises a spout portion for discharging the water in a water spout direction (WR), the collecting portion being able to be arranged in the interior of the channel in such a way, at a location in its longitudinal direction, that at least one outflow edge of the spout portion facing away from the collecting portion comes to rest vertically above a region of the windowsill , and the spout portion can discharge the water, collected in the collecting portion , from the top of the windowsill .
A curved elongated bay post lining having at a longitudinal end portion an excavated region for positioning an element covering the excavated region , characterized in that the bay post lining carries a rib extending longitudinally to the bay post lining over a part of the length of the bay post lining , the rib opening into the excavated region .
A feeder for a reel labelling machine, comprising a reel of peelable labels comprising a reel of peelable paper whereon the labels are peelably adhered and an application area for applying the labels , and the feeder comprises an anti-static blower disposed immediately before the application area for applying the labels and elements for circulating the peelable paper from said reel , which include a peeling plate for peeling the labels from the peelable paper equipped with an edge in the application area for applying the label to a bottle or jar in order to generate the quick bending of the peelable paper with peeling of the end of the label from the peelable paper and the start of the gluing on the contour of the bottle ; characterised by the anti-static blower comprising a point anti-static blower which is disposed over an upper end of the edge of the peeling plate .
Outsole for a shoe , the outsole comprising: a first sole segment which comprises at least one stud and is arranged at least in a mid-foot portion of the outsole ; a second sole segment which comprises at least one stud and is arranged at least in a toe portion of the outsole , characterised in that the first sole segment and the second sole segment overlap partially; a first cushion element being arranged between the first sole segment and the second sole segment , wherein the first cushion element overlaps with at least one first stud of the first or second sole segment ; and a second cushion element being arranged between the first sole segment and the second sole segment , wherein the second cushion element overlaps with at least one second stud of the first or second sole segment. a first sole segment which comprises at least one stud and is arranged at least in a mid-foot portion of the outsole ; a second sole segment which comprises at least one stud and is arranged at least in a toe portion of the outsole , characterised in that the first sole segment and the second sole segment overlap partially; a first cushion element being arranged between the first sole segment and the second sole segment , wherein the first cushion element overlaps with at least one first stud of the first or second sole segment ; and a second cushion element being arranged between the first sole segment and the second sole segment , wherein the second cushion element overlaps with at least one second stud of the first or second sole segment.
Process for producing a composite polyisocyanurate material, comprising the following steps: a) providing a polyisocyanate composition A) which comprises oligomeric polyisocyanates and is low in monomeric diisocyanates, "low in monomeric diisocyanates" meaning that the polyisocyanate composition A) has a content of monomeric diisocyanates of not more than 20% by weight, and consists to an extent of at least 70% by weight of its weight of oligomeric polyisocyanates having exclusively aliphatically or cycloaliphatically bonded isocyanate groups, and b) catalytically trimerizing the polyisocyanate composition A) in the presence of at least one fibrous filler B) and of a trimerization catalyst C) to give the composite polyisocyanurate material, wherein the trimerization catalyst C) is present in a concentration of 0.04% to 15.0% by weight, based on the amount of the polyisocyanate composition A, and wherein the trimerization catalyst C) is an alkaline alkali metal salt or alkaline earth metal salt which, as a saturated aqueous solution, has a pH of greater than 7 at 23°C, and contains a polyether; and wherein the concentration is calculated in respect of trimerization catalyst C) by considering merely the mixture of the at least one alkali metal or alkaline earth metal and the at least one polyether. a) providing a polyisocyanate composition A) which comprises oligomeric polyisocyanates and is low in monomeric diisocyanates, "low in monomeric diisocyanates" meaning that the polyisocyanate composition A) has a content of monomeric diisocyanates of not more than 20% by weight, and consists to an extent of at least 70% by weight of its weight of oligomeric polyisocyanates having exclusively aliphatically or cycloaliphatically bonded isocyanate groups, and b) catalytically trimerizing the polyisocyanate composition A) in the presence of at least one fibrous filler B) and of a trimerization catalyst C) to give the composite polyisocyanurate material, wherein the trimerization catalyst C) is present in a concentration of 0.04% to 15.0% by weight, based on the amount of the polyisocyanate composition A, and wherein the trimerization catalyst C) is an alkaline alkali metal salt or alkaline earth metal salt which, as a saturated aqueous solution, has a pH of greater than 7 at 23°C, and contains a polyether; and wherein the concentration is calculated in respect of trimerization catalyst C) by considering merely the mixture of the at least one alkali metal or alkaline earth metal and the at least one polyether.
A teeth movement tracking device, comprising: an input unit for receiving three-dimensional teeth data and three-dimensional image data of a face comprising two or more consecutive images of the moving face; an image processing unit for generating three-dimensional moving data by combining the three-dimensional teeth data with the three-dimensional image data of the face; a movement tracking unit for detecting an axis of rotation with respect to the rotation of the temporomandibular joint by setting a plurality of feature points based on the three-dimensional image data, tracking the movement of each feature point, comparing the movement of the respective feature points and determining a feature point having the least movement among the respective feature points; and a trajectory generation unit for calculating the movement trajectory of the temporomandibular joint by tracking the rotation or free motion of the temporomandibular joint with respect to the axis of rotation detected by the movement tracking unit . an input unit for receiving three-dimensional teeth data and three-dimensional image data of a face comprising two or more consecutive images of the moving face; an image processing unit for generating three-dimensional moving data by combining the three-dimensional teeth data with the three-dimensional image data of the face; a movement tracking unit for detecting an axis of rotation with respect to the rotation of the temporomandibular joint by setting a plurality of feature points based on the three-dimensional image data, tracking the movement of each feature point, comparing the movement of the respective feature points and determining a feature point having the least movement among the respective feature points; and a trajectory generation unit for calculating the movement trajectory of the temporomandibular joint by tracking the rotation or free motion of the temporomandibular joint with respect to the axis of rotation detected by the movement tracking unit .
A process for the preparation of the compound of formula (I) comprising the following step: (ii) reacting a compound of formula (II) with the nitric acid in the presence of the sulfuric acid or oleum, wherein the nitric acid is used in an amount of 2 to 20 mole equivalents per 1 mole of the compound (II).
A method for melting down scrap in which the scrap is conveyed by means of a conveyor device between an input area for the scrap onto the conveyor device and a transfer area for the scrap from the conveyor device into a melting furnace , the conveyor device , at least between the input area and the transfer area , being disposed in a scrap preheating housing which has an at least substantially closed cross section or being covered by a scrap preheating housing , the transport of scrap into the melting furnace being stopped towards the end of a feed process of the melting furnace with the scrap , the conveyor device having at least two conveyor elements (14, 15; 15a) for conveying the scrap into the melting furnace , the at least two conveyor elements (14, 15; 15a) forming an at least substantially horizontal conveyor path for the scrap , and a first conveyor element extending from the input area in the direction of a delivery area between the at least two conveyor elements (14,15; 15a) and a second conveyor element (15; 15a) extending from the delivery area into the transfer area , characterized in that the first conveyor element is stopped towards the end of the feed process in order to stop the transport of the scrap into the melting furnace and the second conveyor element (15; 15a) is further operated until the entire scrap located on the second conveyor element (15; 15a) is transported from the second conveyor element (15; 15a) into the melting furnace .
Method for predicting partitions of at least one group of pixels in an image (IE) to be coded, with respect to a group of reference pixels, the group of pixels being split beforehand into a plurality of non-overlapping partitions, a current partition to be predicted being predicted with reference to at least one partition that immediately precedes it and that has been coded and then decoded, the method being characterized in that the group of reference pixels is obtained by calculating a function parametrized according to a predetermined mode of prediction, the reference pixels of said group obtained belonging to at least one partition different from the current partition and being able to vary from one partition to another, and in that , for each pixel of a current partition to be predicted, said function determines, from a set of reference pixels able to be selected in order to predict the pixel under consideration in accordance with the predetermined mode of prediction, at least two reference pixels such that the distance that separates each of them from the pixel under consideration is the shortest in comparison with the distances that have been estimated for the other reference pixels of the set.
A self-releasing surfacing material that is capable of ultraviolet (UV) protection, comprising a curable resin layer laminated to a releasable layer, wherein the curable resin layer comprises one or more thermoset resins, the releasable layer comprises a thermoplastic polymer layer coated on one or both sides with a coating of fluoropolymer or organosilicon polymer, and the releasable layer is positioned such that at least one coating of fluoropolymer or organosilicon polymer is an outermost layer with an exposed surface, wherein the thermoplastic polymer layer is formed from a material selected from: thermoplastic polyester elastomers (TPE-E); thermoplastic co-polyesters (TPC), including polyetheresters; crosslinked thermoplastic elastomers based on olefins (TPE-V/TPV); mixture of polypropylene and ethylene-propylene-diene rubber (EPDM/PP); thermoplastic elastomers based on urethanes (TPE-U/TPU); mixture of natural rubber and polypropylene (NR/PP); mixtures of nitrile rubber and polypropylene (NBR/PP); mixtures of ethylene-vinyl acetate and polyvinylidene chloride (EVA/PVDC); polyolefin, including polymethylpentene (PMP) and polyolefin copolymers; polyamide, including nylon-6,6; poly-ε-caprolactam; polyethylene terephthalate (PET); polyimide (PI), and produced by film extrusion. the curable resin layer comprises one or more thermoset resins, the releasable layer comprises a thermoplastic polymer layer coated on one or both sides with a coating of fluoropolymer or organosilicon polymer, and the releasable layer is positioned such that at least one coating of fluoropolymer or organosilicon polymer is an outermost layer with an exposed surface, wherein the thermoplastic polymer layer is formed from a material selected from: thermoplastic polyester elastomers (TPE-E); thermoplastic co-polyesters (TPC), including polyetheresters; crosslinked thermoplastic elastomers based on olefins (TPE-V/TPV); mixture of polypropylene and ethylene-propylene-diene rubber (EPDM/PP); thermoplastic elastomers based on urethanes (TPE-U/TPU); mixture of natural rubber and polypropylene (NR/PP); mixtures of nitrile rubber and polypropylene (NBR/PP); mixtures of ethylene-vinyl acetate and polyvinylidene chloride (EVA/PVDC); polyolefin, including polymethylpentene (PMP) and polyolefin copolymers; polyamide, including nylon-6,6; poly-ε-caprolactam; polyethylene terephthalate (PET); polyimide (PI), and produced by film extrusion.
Method for controlling a bending machine , the bending machine having, for bending a metal sheet , at least an upper roller and a lower roller and a side roller that can be positioned with respect thereto, the method comprising calculating at least one bending machine setting using a calculation method based at least on the properties of the metal sheet , characterized by selecting a data set from a plurality of stored data sets from previous bending operations, a stored data set from a previous bending operation comprising a calculated bending machine setting and an associated correction value , and correcting the calculated bending machine setting based on the correction value of a corresponding bending machine setting of the selected stored data set, and setting the bending machine based on the corrected calculated bending machine setting. the bending machine having, for bending a metal sheet , at least an upper roller and a lower roller and a side roller that can be positioned with respect thereto, the method comprising calculating at least one bending machine setting using a calculation method based at least on the properties of the metal sheet , characterized by selecting a data set from a plurality of stored data sets from previous bending operations, a stored data set from a previous bending operation comprising a calculated bending machine setting and an associated correction value , and correcting the calculated bending machine setting based on the correction value of a corresponding bending machine setting of the selected stored data set, and setting the bending machine based on the corrected calculated bending machine setting.
A method of processing data for additive manufacturing of a three-dimensional object , the method comprising: receiving a plurality of graphic elements defining a surface of the object, and an input color texture to be visible over a surface of the object ; transforming said graphic elements to a grid of voxels defining a shape of the object , thereby providing computer object data; constructing a three-dimensional color map having a plurality of pixels, each pixel being associated with a voxel of the computer object data and being categorized as either a topmost pixel or an internal pixel , wherein each topmost pixel (S2) is associated with a group of internal pixels forming a receptive field (F2) for said topmost pixel (S2), and wherein for at least one topmost pixel (S2), two or more pixels (F2b, F2c) of a receptive field of said topmost pixel are at equal depths relative to said topmost pixel (S2); assigning a color-value to each topmost pixel and each internal pixel of a receptive field associated with said topmost pixel , based on said color texture and on a subtractive color mixing of said topmost pixel with said receptive field ; and for each pixel , designating , based on said color-value, a material to be used for forming a voxel corresponding to said pixel during said additive manufacturing; and storing in a memory, for each pixel of said map , a respective receptive field and a respective depth. receiving a plurality of graphic elements defining a surface of the object, and an input color texture to be visible over a surface of the object ; transforming said graphic elements to a grid of voxels defining a shape of the object , thereby providing computer object data; constructing a three-dimensional color map having a plurality of pixels, each pixel being associated with a voxel of the computer object data and being categorized as either a topmost pixel or an internal pixel , wherein each topmost pixel (S2) is associated with a group of internal pixels forming a receptive field (F2) for said topmost pixel (S2), and wherein for at least one topmost pixel (S2), two or more pixels (F2b, F2c) of a receptive field of said topmost pixel are at equal depths relative to said topmost pixel (S2); assigning a color-value to each topmost pixel and each internal pixel of a receptive field associated with said topmost pixel , based on said color texture and on a subtractive color mixing of said topmost pixel with said receptive field ; and for each pixel , designating , based on said color-value, a material to be used for forming a voxel corresponding to said pixel during said additive manufacturing; and storing in a memory, for each pixel of said map , a respective receptive field and a respective depth.
A method of preparing a cosmetic composition comprising ceramide-accommodating particles, comprising: preparing ceramide-accommodating particles by mixing an oil-phase part comprising a ceramide and phytosphingosine with an aqueous phase part, wherein in the step of mixing, the oil-phase part is dispersed in the aqueous phase part by permeating the oil-phase part through an emulsification membrane to prepare the ceramide-accommodating particles. preparing ceramide-accommodating particles by mixing an oil-phase part comprising a ceramide and phytosphingosine with an aqueous phase part, wherein in the step of mixing, the oil-phase part is dispersed in the aqueous phase part by permeating the oil-phase part through an emulsification membrane to prepare the ceramide-accommodating particles.
Safety system for securing a fuel assembly during a transport with a fuel assembly handling device , comprising a safety device being provided to be attached to the fuel assembly handling device and to be arranged below the fuel assembly at least during the transport, wherein the safety device is provided to alternate between a first state and a second state, wherein in the first state a passage of the fuel assembly and/or at least a part of the fuel assembly handling device through the safety device and/or laterally past the safety device is allowed and in the second state a passage of the fuel assembly through the safety device and/or laterally past the safety device is prevented, and further comprising at least one damping element being provided to absorb energy resulting from a fall down of the fuel assembly .
A hydrogen refueling system comprising: a cryogenic fluid tank that stores a cryogenic fluid; a dispenser that supplies H 2 to a vehicle, including a heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank; an inlet line that sends the cold and/or cryogenic fluid to the heat exchanger from the cryogenic fluid tank; an outlet line that collects the cryogenic fluid fed from the heat exchanger ; and an injection valve that is provided in the inlet line ; characterized in that the hydrogen refueling system is configured so that during part of the idle time of the system, the heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank heats up more than 7°C above its nominal temperature during FCV refueling, and that it is cooled down upon arrival of a vehicle to be refilled. a cryogenic fluid tank that stores a cryogenic fluid; a dispenser that supplies H 2 to a vehicle, including a heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank; an inlet line that sends the cold and/or cryogenic fluid to the heat exchanger from the cryogenic fluid tank; an outlet line that collects the cryogenic fluid fed from the heat exchanger ; and an injection valve that is provided in the inlet line ; characterized in that the hydrogen refueling system is configured so that during part of the idle time of the system, the heat exchanger that cools H 2 with the cold and/or cryogenic fluid provided from the cryogenic fluid tank heats up more than 7°C above its nominal temperature during FCV refueling, and that it is cooled down upon arrival of a vehicle to be refilled.
Apparatus for estimating one or more of the rate of fluid flow, the fluid pressure, and the fluid viscosity of a fluid, the apparatus comprising: a bistable device configured to be arranged in communication with a said fluid; and the bistable device including a rocker movable between a first stable state and a second stable state; and a resilient member configiured to bias the rocker into each of the first and second stable states; and a shape memory alloy element (38; 40) coupled to the rocker wherein shape change of the shape memory alloy element (38; 40) under heat produces an impulse to move the bistable device out of the first stable state; and, an accelerometer arranged to detect motion of the bistable device, wherein when measuring the acceleration of one or more components of the bistable device during a transition between stable states, one or more of the rate of fluid flow, the fluid pressure, and the fluid viscosity of said fluid can be determined. a bistable device configured to be arranged in communication with a said fluid; and the bistable device including a rocker movable between a first stable state and a second stable state; and a resilient member configiured to bias the rocker into each of the first and second stable states; and a shape memory alloy element (38; 40) coupled to the rocker wherein shape change of the shape memory alloy element (38; 40) under heat produces an impulse to move the bistable device out of the first stable state; and, an accelerometer arranged to detect motion of the bistable device, wherein when measuring the acceleration of one or more components of the bistable device during a transition between stable states, one or more of the rate of fluid flow, the fluid pressure, and the fluid viscosity of said fluid can be determined.