mhurhangee/ep-ind-claims huggingface dataset:
A device for unloading and storing preforms for the production of containers made of plastics, comprising at least one cooling plate that defines a plurality of receptacles for respective preforms and means for transferring the still-hot preforms from an injection molding device to said cooling plate, and pick-up means adapted to pick up said preforms from said cooling plate and to place them inside at least one accommodation container, characterized in that said pick-up means comprise a plate that supports a plurality of supporting bodies for a respective preform wherein said supporting bodies comprise respective protrusions that are extended substantially at right angles with respect to said plate.
method for determining a location of a user within a cabin of a vehicle, comprising: capturing one or more images with an electronic device held by the user; determining (204, 206) via a processor, an edge density and an edge density location in a front-facing image of the user, wherein the edge density location is a location in the image where the edge density is the highest or where the edge density is greater then a threshold; determining via the processor, that the user is on a left side of the vehicle cabin or on a right side of the vehicle cabin based at least on the determined location of the edge density; determining (212, 216) via the processor, uniformity of the front-facing image of the user; determining via the processor, that the user is in a front position in the vehicle cabin or is in a rear position in the vehicle cabin based at least on the determined uniformity of the front-facing image of the user; and outputting via an interface communicatively coupled to the processor, to a control device of the vehicle cabin, a location of the user in the vehicle cabin based on the left side or the right side and the front position or the rear position. capturing one or more images with an electronic device held by the user; determining (204, 206) via a processor, an edge density and an edge density location in a front-facing image of the user, wherein the edge density location is a location in the image where the edge density is the highest or where the edge density is greater then a threshold; determining via the processor, that the user is on a left side of the vehicle cabin or on a right side of the vehicle cabin based at least on the determined location of the edge density; determining (212, 216) via the processor, uniformity of the front-facing image of the user; determining via the processor, that the user is in a front position in the vehicle cabin or is in a rear position in the vehicle cabin based at least on the determined uniformity of the front-facing image of the user; and outputting via an interface communicatively coupled to the processor, to a control device of the vehicle cabin, a location of the user in the vehicle cabin based on the left side or the right side and the front position or the rear position.
A compound represented by structural formula IV: or a pharmaceutically acceptable salt thereof, wherein: R 2 is selected from optionally substituted heteroaryl having 5 to 15 ring atoms and optionally substituted aryl having 6 to 12 ring atoms, wherein the optional substituents on R 2 groups are 1, 2 or 3 substituents independently selected from halogen, C 1 -C 4 alkyl, halo-C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 thioalkoxy, hydroxyl, amino, C 1 -C 4 alkylamino, C 1 -C 4 dialkylamino, sulfhydryl, cyano, C 6 aryl and heteroaryl having 5 or 6 ring atoms. R 2 is selected from optionally substituted heteroaryl having 5 to 15 ring atoms and optionally substituted aryl having 6 to 12 ring atoms, wherein the optional substituents on R 2 groups are 1, 2 or 3 substituents independently selected from halogen, C 1 -C 4 alkyl, halo-C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 1 -C 4 thioalkoxy, hydroxyl, amino, C 1 -C 4 alkylamino, C 1 -C 4 dialkylamino, sulfhydryl, cyano, C 6 aryl and heteroaryl having 5 or 6 ring atoms.
A tool cylinder, in particular for use as a working cylinder, interacting with a back-pressure element, of an embossing machine or printing press, having a sleeve carrier and an exchangeable tool sleeve (250, 250-4, 250-5) releasably fastenable to the sleeve carrier, wherein the sleeve carrier has a carrier element which carries a first end piece on a first axial end portion and a second end piece on a second axial end portion, wherein the tool sleeve is clamped in place between the end pieces (230, 240) in the mounted state of the tool cylinder and a radial spacing (A1, A2) exists between the carrier element and the tool sleeve in a region between the end pieces, characterized in that the tool sleeve has first coupling structures on axial end sides, and the end pieces (230, 240) have second coupling contours (234, 334) on the end sides facing the tool sleeve, wherein the first and second coupling contours are configured to couple the tool sleeve in a form-fitting, rotationally fixed manner between the end pieces, wherein the first and the second coupling structures have protrusions and/or recesses which extend radially with respect to a rotation axis of the tool cylinder, and in that the tool cylinder has heating elements of an electrical heating device for heating the tool sleeve, wherein the heating device has heating elements which are arranged on the outer side of the carrier element.
A method for facilitating handling a high voltage component in relation to partial discharges in the high voltage component, which high voltage component comprises an insulating cover enclosing the component and which high voltage component is connected with a high voltage system comprising two or more high voltage conductors adapted to each conduct an electric alternating current, which alternating currents are adapted relative to each other in size and phase, so that the alternating currents added together substantially cancel each other in a common potential, which is close to the earth potential, which method comprises: - jointly displacing the common potential for the high voltage conductors during progressing high-voltage operation of the high voltage system, wherein the voltage oscillates around an average potential. - jointly displacing the common potential for the high voltage conductors during progressing high-voltage operation of the high voltage system, wherein the voltage oscillates around an average potential.
A device for transporting paving mix, comprising: a reusable collapsible portable paving mix container including six walls (100a, 100b, 100c, 100d, 100e, 100f), including bottom, top, front, rear, and side walls (100e, 1000, said bottom being provided with at least one door, characterized in that: two end caps (102, 103) and a center section that are telescopically connected whereby the reusable collapsible portable paving mix container may be provided with an extended configuration and a collapsed configuration wherein the front and rear walls are closer to one another in the collapsed configuration than in the extended configuration. a reusable collapsible portable paving mix container including six walls (100a, 100b, 100c, 100d, 100e, 100f), including bottom, top, front, rear, and side walls (100e, 1000, said bottom being provided with at least one door, characterized in that: two end caps (102, 103) and a center section that are telescopically connected whereby the reusable collapsible portable paving mix container may be provided with an extended configuration and a collapsed configuration wherein the front and rear walls are closer to one another in the collapsed configuration than in the extended configuration. two end caps (102, 103) and a center section that are telescopically connected whereby the reusable collapsible portable paving mix container may be provided with an extended configuration and a collapsed configuration wherein the front and rear walls are closer to one another in the collapsed configuration than in the extended configuration.
A method operating on a processor for preserving image privacy, comprising: receiving an original image; splitting the original image into first and second sub-images (310, 315), each of the first and second sub-images having a same number of pixels as the original image; for each of a plurality of pixel values of the first sub-image, adding a first corresponding keystream value selected from a plurality of keystream values; producing a first encrypted sub-image; for each of a plurality of pixel values of the second sub-image, adding a second corresponding keystream value selected from the plurality of keystream values, the second corresponding keystream value different than the first corresponding keystream value; and producing a second encrypted sub-image. receiving an original image; splitting the original image into first and second sub-images (310, 315), each of the first and second sub-images having a same number of pixels as the original image; for each of a plurality of pixel values of the first sub-image, adding a first corresponding keystream value selected from a plurality of keystream values; producing a first encrypted sub-image; for each of a plurality of pixel values of the second sub-image, adding a second corresponding keystream value selected from the plurality of keystream values, the second corresponding keystream value different than the first corresponding keystream value; and producing a second encrypted sub-image.
A physiological characteristic sensor device comprising: a base substrate (130, 400, 606, 702, 728) having an exterior surface and an interior surface opposing the exterior surface; a conductive circuit pattern (132, 408) formed overlying the interior surface of the base substrate; a physiological characteristic sensor element (106, 444, 602, 708, 730, 804, 854) located on the exterior surface of the base substrate, the physiological characteristic sensor element comprising sensor electrodes; conductive plug elements located in vias formed through the base substrate, each conductive plug element having a first end electrically coupled to one of the sensor electrodes, and having a second end electrically coupled to the conductive circuit pattern, the vias and the conductive plug elements being configured to employ a counterbore methodology to provide mechanical support for an insertion needle for deploying the physiological characteristic sensor element in a user; a multilayer component stack carried on the base substrate and connected to the conductive circuit pattern, the multilayer component stack comprising features and components to provide processing and wireless communication functionality for sensor data obtained in association with operation of the physiological characteristic sensor device; and an enclosure structure (142, 432, 706, 722) coupled to the base substrate to enclose the interior surface of the base substrate, the conductive circuit pattern, and the multilayer component stack. a base substrate (130, 400, 606, 702, 728) having an exterior surface and an interior surface opposing the exterior surface; a conductive circuit pattern (132, 408) formed overlying the interior surface of the base substrate; a physiological characteristic sensor element (106, 444, 602, 708, 730, 804, 854) located on the exterior surface of the base substrate, the physiological characteristic sensor element comprising sensor electrodes; conductive plug elements located in vias formed through the base substrate, each conductive plug element having a first end electrically coupled to one of the sensor electrodes, and having a second end electrically coupled to the conductive circuit pattern, the vias and the conductive plug elements being configured to employ a counterbore methodology to provide mechanical support for an insertion needle for deploying the physiological characteristic sensor element in a user; a multilayer component stack carried on the base substrate and connected to the conductive circuit pattern, the multilayer component stack comprising features and components to provide processing and wireless communication functionality for sensor data obtained in association with operation of the physiological characteristic sensor device; and an enclosure structure (142, 432, 706, 722) coupled to the base substrate to enclose the interior surface of the base substrate, the conductive circuit pattern, and the multilayer component stack.
A method for producing a transparent conductive pattern, wherein pulsed light from a xenon irradiation lamp having a pulse width of 20 microseconds to 50 milliseconds is irradiated to metal nanowires deposited on a substrate to join intersections of the metal nanowires.
A method for performing, by a first apparatus, sidelink, SL, transmission, the method comprising: transmitting, to a new radio, NR, base station, a user equipment, UE, capability information regarding a minimum latency of the first apparatus; receiving, from the NR base station through NR Uu interface, scheduling information including (i) information regarding a first timing offset related to the minimum latency, (ii) information regarding a second timing offset related to activation of a SL semi persistent scheduling, SPS, configuration, (iii) index information of the SL SPS configuration, and (iv) information representing activation or release of the SL SPS configuration; and performing long-term evolution, LTE, SL transmission based on the scheduling information. transmitting, to a new radio, NR, base station, a user equipment, UE, capability information regarding a minimum latency of the first apparatus; receiving, from the NR base station through NR Uu interface, scheduling information including (i) information regarding a first timing offset related to the minimum latency, (ii) information regarding a second timing offset related to activation of a SL semi persistent scheduling, SPS, configuration, (iii) index information of the SL SPS configuration, and (iv) information representing activation or release of the SL SPS configuration; and performing long-term evolution, LTE, SL transmission based on the scheduling information.
An electronic device, comprising: a housing; a touch screen having a display area surrounded by edges of the housing, wherein the display area includes a grip rejection area located adjacent to one of the edges, the grip rejection area comprising a first region and a second region; and one or more processors configured to: obtain touch information of a touch input, wherein the touch information comprises a touch coordinate and a touch duration; when the touch input occurs in the first region, ignore the touch input if the touch information corresponds to a multi-touch input; and when the touch input occurs in the second region, ignore the touch input if the touch duration of the touch information is at least a predetermined duration, wherein the first region is defined by the one of the edges and a boundary located a first distance from the one of the edges, the second region is defined by the one of the edges and a boundary located a second distance from the one of the edges, and the second distance is less than the first distance. a housing; a touch screen having a display area surrounded by edges of the housing, wherein the display area includes a grip rejection area located adjacent to one of the edges, the grip rejection area comprising a first region and a second region; and one or more processors configured to: obtain touch information of a touch input, wherein the touch information comprises a touch coordinate and a touch duration; when the touch input occurs in the first region, ignore the touch input if the touch information corresponds to a multi-touch input; and when the touch input occurs in the second region, ignore the touch input if the touch duration of the touch information is at least a predetermined duration, obtain touch information of a touch input, wherein the touch information comprises a touch coordinate and a touch duration; when the touch input occurs in the first region, ignore the touch input if the touch information corresponds to a multi-touch input; and when the touch input occurs in the second region, ignore the touch input if the touch duration of the touch information is at least a predetermined duration, wherein the first region is defined by the one of the edges and a boundary located a first distance from the one of the edges, the second region is defined by the one of the edges and a boundary located a second distance from the one of the edges, and the second distance is less than the first distance.
Rubber mixture for the inner layer or the tube of pneumatic vehicle tyres containing the following constituents: - at least one butyl rubber and/or halobutyl rubber and - a filler system comprising 55% by weight or more of at least one pyrolysis carbon black as a proportion of the total amount of fillers present, wherein the filler system contains up to 45% by weight of at least one inactive inorganic filler, wherein the amounts of fillers present sum to 100% by weight, wherein calcium carbonate and/or lamellar fillers, such as phyllosilicates and/or dry batch compounds containing at least 25% by weight of at least one delaminated aluminium hydrosilicate modification, wherein the delaminated aluminium hydrosilicate modification has a bilayer lattice, is/are present as at least one inactive inorganic filler. - at least one butyl rubber and/or halobutyl rubber and - a filler system comprising 55% by weight or more of at least one pyrolysis carbon black as a proportion of the total amount of fillers present, wherein the filler system contains up to 45% by weight of at least one inactive inorganic filler, wherein the amounts of fillers present sum to 100% by weight, wherein calcium carbonate and/or lamellar fillers, such as phyllosilicates and/or dry batch compounds containing at least 25% by weight of at least one delaminated aluminium hydrosilicate modification, wherein the delaminated aluminium hydrosilicate modification has a bilayer lattice, is/are present as at least one inactive inorganic filler.
A computer-implemented method of segmenting a three-dimensional digital representation of an anatomical structure, the method comprising: - segmentation of an outer boundary of said anatomical structure; characterized in that it further comprises: - temporary replacement, prior to said segmentation of said outer boundary and in a specified volume, of intensity values significantly deviating from those of said anatomical structure with a substitute intensity value representative of said anatomical structure, wherein the specified volume in which replacement of intensity values is to be performed is determined as an envelope of said anatomical structure, wherein the envelope is defined based on a boundary layer of another anatomical structure surrounding said anatomical structure to be segmented; - restoration of said significantly deviating intensity values once said segmentation of said outer boundary is complete. - segmentation of an outer boundary of said anatomical structure; characterized in that it further comprises: - temporary replacement, prior to said segmentation of said outer boundary and in a specified volume, of intensity values significantly deviating from those of said anatomical structure with a substitute intensity value representative of said anatomical structure, wherein the specified volume in which replacement of intensity values is to be performed is determined as an envelope of said anatomical structure, wherein the envelope is defined based on a boundary layer of another anatomical structure surrounding said anatomical structure to be segmented; - restoration of said significantly deviating intensity values once said segmentation of said outer boundary is complete. - temporary replacement, prior to said segmentation of said outer boundary and in a specified volume, of intensity values significantly deviating from those of said anatomical structure with a substitute intensity value representative of said anatomical structure, wherein the specified volume in which replacement of intensity values is to be performed is determined as an envelope of said anatomical structure, wherein the envelope is defined based on a boundary layer of another anatomical structure surrounding said anatomical structure to be segmented; - restoration of said significantly deviating intensity values once said segmentation of said outer boundary is complete.
A method of manufacture of a calcium sulphate-based product having increased fire resistance, comprising the steps of: o providing a stucco slurry comprising a mixture of stucco, water, and at least one phosphate additive; and o allowing the stucco in the mixture to hydrate and set; wherein the phosphate additive is present in an amount of at least 2 weight % of the dry weight of the slurry, and further wherein the phosphate additive is provided in an aqueous solution. o providing a stucco slurry comprising a mixture of stucco, water, and at least one phosphate additive; and o allowing the stucco in the mixture to hydrate and set;
Rolling mill capable of rolling long kilometres used for ESP production line, the rolling mill comprising bearing boxes, an upper roll and a lower roll, wherein said upper roll and said lower roll have the same roll profile and are positioned in the opposite direction; wherein one end of the rolls (3, 4) is frustum-shaped, smaller and smaller outwards, while the other end of the rolls (3, 4) is cylindrical; and wherein the middle portion of the surface of said rolls (3, 4) sinks inwards; characterized in that it further comprises - roll shifting hydraulic cylinders, wherein both ends of each of the rolls (3, 4) are connected with the bearing boxes, respectively, and one end of each of the rolls (3, 4) is connected with a respective one of the roll shifting hydraulic cylinders; - a wear monitor configured to calculate continuously the wear (Δr) of the rolls (3, 4) based on the rolling force, the rotational speed of the rolls (3, 4) or the number of rotations of the rolls (3, 4), and - a controller configured to output a signal to the roll shifting cylinders, depending on the wear (Δr) of the rolls (3, 4), to shift the rolls (3, 4) by the same distance (s) in opposite horizontal directions. wherein said upper roll and said lower roll have the same roll profile and are positioned in the opposite direction; wherein one end of the rolls (3, 4) is frustum-shaped, smaller and smaller outwards, while the other end of the rolls (3, 4) is cylindrical; and wherein the middle portion of the surface of said rolls (3, 4) sinks inwards; - roll shifting hydraulic cylinders, wherein both ends of each of the rolls (3, 4) are connected with the bearing boxes, respectively, and one end of each of the rolls (3, 4) is connected with a respective one of the roll shifting hydraulic cylinders; - a wear monitor configured to calculate continuously the wear (Δr) of the rolls (3, 4) based on the rolling force, the rotational speed of the rolls (3, 4) or the number of rotations of the rolls (3, 4), and - a controller configured to output a signal to the roll shifting cylinders, depending on the wear (Δr) of the rolls (3, 4), to shift the rolls (3, 4) by the same distance (s) in opposite horizontal directions.
A non-therapeutic, cosmetic use of a preparation comprising sclareolide for treating hyperpigmentation induced by radiation of visible light in the range of from 400 nm to 700 nm, wherein said preparation is applied to human skin.