mhurhangee/patent-ind-claim-en huggingface dataset:
System for reducing interference effects in antennae, comprising an antenna field comprising at least two antenna elements ; and a device for reducing interference effects in antennae, the device having a base unit for fixing the antenna elements and an attenuation element for reducing the field strength of surface waves at the base unit , the base unit having at least two connecting elements , each of the at least two connecting elements connecting an associated one of the at least two antenna elements directly to the base unit , the attenuation element being fixed on the base unit and extending around the at least two connecting elements , and the attenuation element having a first segment , with a curved cross section arranged parallel to the base unit , the first segment extending around at least a first of the at least two connecting elements . an antenna field comprising at least two antenna elements ; and a device for reducing interference effects in antennae, the device having a base unit for fixing the antenna elements and an attenuation element for reducing the field strength of surface waves at the base unit , the base unit having at least two connecting elements , each of the at least two connecting elements connecting an associated one of the at least two antenna elements directly to the base unit , the attenuation element being fixed on the base unit and extending around the at least two connecting elements , and the attenuation element having a first segment , with a curved cross section arranged parallel to the base unit , the first segment extending around at least a first of the at least two connecting elements .
In-feed device 1 suitable for feeding, rinsing and arranging an uneven stream of individual objects onto a grading apparatus, wherein the in-feed device comprises: • a frame , • a receiving tray , • one or more sliding plates each sliding plate having an in-feed end and an out-feed end, wherein each sliding plate further comprises a ridged bottom surface and a gap between each ridge, and • one or more vibrating units attached to the frame , wherein the receiving tray and the one or more sliding plates are attached to the vibrating unit in an inclined position, wherein the gap between each ridge increases in width from the in-feeding end towards the out-feeding end and wherein the last portion of each gap widens to form an opening in the bottom surface for rinsed and arranged objects to fall through, characterised in that the lowest sliding plate of the one or more sliding plates has a stopping member to force the objects to fall through the opening in the bottom surface. • a frame , • a receiving tray , • one or more sliding plates each sliding plate having an in-feed end and an out-feed end, wherein each sliding plate further comprises a ridged bottom surface and a gap between each ridge, and • one or more vibrating units attached to the frame , wherein the receiving tray and the one or more sliding plates are attached to the vibrating unit in an inclined position, wherein the gap between each ridge increases in width from the in-feeding end towards the out-feeding end and wherein the last portion of each gap widens to form an opening in the bottom surface for rinsed and arranged objects to fall through, characterised in that the lowest sliding plate of the one or more sliding plates has a stopping member to force the objects to fall through the opening in the bottom surface.
A method, comprising: receiving, by a wireless peripheral device (120A-H), a request from a wireless docking center device to activate and announce the wireless peripheral device's availability according to an identified application; activating and announcing, by the wireless peripheral device (120A-H), the wireless peripheral device's availability according to the identified application; and transmitting, by the wireless peripheral device (120A-H), to the wireless docking center device , in response to the request, an acknowledgement of the request, that the wireless peripheral device can satisfy the request, wherein the wireless peripheral device is an automobile. receiving, by a wireless peripheral device (120A-H), a request from a wireless docking center device to activate and announce the wireless peripheral device's availability according to an identified application; activating and announcing, by the wireless peripheral device (120A-H), the wireless peripheral device's availability according to the identified application; and transmitting, by the wireless peripheral device (120A-H), to the wireless docking center device , in response to the request, an acknowledgement of the request, that the wireless peripheral device can satisfy the request,
A dental crown , comprising: a metal shell shaped to cover a portion of a tooth of a patient, the metal shell comprising: a continuous non-porous, metal or metal-composite layer; a coating retention layer adjacent the metal layer, wherein the coating retention layer is three-dimensionally printed and comprises a plurality of coating retention elements , wherein the retention layer comprises a plurality of interstitial regions between the retention elements and the adjacent metal layer, wherein a plurality of apertures is formed between the plurality of retention elements, characterized in that the retention elements of the coating retention layer comprise a grid, or a mesh, comprising a plurality of elongated metal strands , and the interstitial regions underlie at least a portion of the strands. a continuous non-porous, metal or metal-composite layer; a coating retention layer adjacent the metal layer, wherein the coating retention layer is three-dimensionally printed and comprises a plurality of coating retention elements , wherein the retention layer comprises a plurality of interstitial regions between the retention elements and the adjacent metal layer, wherein a plurality of apertures is formed between the plurality of retention elements, characterized in that the retention elements of the coating retention layer comprise a grid, or a mesh, comprising a plurality of elongated metal strands , and the interstitial regions underlie at least a portion of the strands.
A pedicle screw of the polyaxial type with a screw shaft , at the proximal end of which a screw head with a substantially spherical basic shape is formed in one piece, which is mounted in a receiving sleeve or tulip , in which an insertion sleeve is inserted, which can be pressed against the screw head to fix a relative pivot position between the receiving sleeve or tulip and the screw shaft , wherein the screw head has two pivot guide units or pivot restriction units that are diametrically opposite to one another, characterized in that the two pivot guide units or pivot restriction units that are diametrically opposite to one another respectively have at least one extension projecting radially and in a longitudinal screw direction beyond the spherical basic shape of the screw head , wherein the extensions form stops on their respective, preferably partially cylindrical, radial outer surfaces, and are positioned in such a way that they permit relative pivoting of the screw shaft and the tulip or receiving sleeve only in one pivot plane and that, in the event of relative pivoting in another pivot plane, they are supported to be stopped at a radially inner circumferential side of the tulip or receiving sleeve .
A water dispersible sheet (S) that is a base paper sheet impregnated with a chemical solution, the base paper sheet being made of a water dispersible fiber aggregate that is a single layer or multiple layers of paper or nonwoven fabric, including natural fibers and/or synthetic fibers impregnated with a water-soluble binder having a carboxyl group, comprising: diethylene glycol monobutyl ether and propylene glycol monomethyl ether in the chemical solution, wherein the chemical solution contains 11.50% by mass to 13.50% by mass of propylene glycol monomethyl ether and 3.00% by mass to 5.00 by mass of diethylene glycol monobutyl ether. diethylene glycol monobutyl ether and propylene glycol monomethyl ether in the chemical solution, wherein the chemical solution contains 11.50% by mass to 13.50% by mass of propylene glycol monomethyl ether and 3.00% by mass to 5.00 by mass of diethylene glycol monobutyl ether.
A cathode comprising: a cathode material; and a current collector, wherein: the cathode material comprises a cathode active material and a carbon material of secondary particles consisting of a plurality of primary particles, wherein the carbon material of secondary particles has an average chain length less than 30 primary particles connected to each other; wherein the amount of solid of the cathode material is 65 wt% or higher based on the total weight of the cathode; and. wherein an average particle diameter of the primary particles is in a range of 18 nm to 28 nm. a cathode material; and a current collector, wherein: the cathode material comprises a cathode active material and a carbon material of secondary particles consisting of a plurality of primary particles, wherein the carbon material of secondary particles has an average chain length less than 30 primary particles connected to each other; wherein the amount of solid of the cathode material is 65 wt% or higher based on the total weight of the cathode; and. the cathode material comprises a cathode active material and a carbon material of secondary particles consisting of a plurality of primary particles, wherein the carbon material of secondary particles has an average chain length less than 30 primary particles connected to each other; wherein the amount of solid of the cathode material is 65 wt% or higher based on the total weight of the cathode; and. wherein an average particle diameter of the primary particles is in a range of 18 nm to 28 nm.
A method for manufacturing a joint structure of dissimilar materials, the method comprising: forming a low-temperature thermal spray coating on at least a part of a surface of an aluminum or aluminum alloy material by low-temperature thermal spraying a metal powder of at least one metal selected from the group consisting of pure iron, carbon steel, stainless steel, nickel, a nickel alloy, cobalt, and a cobalt alloy; overlapping the aluminum or aluminum alloy material and a steel material such that the low-temperature thermal spray coating and the steel material face each other; and joining the aluminum or aluminum alloy material and the steel material by a laser welding from a steel material side, characterized in that the joining is performed under a welding condition in which a fusion zone is formed in the steel material, the low-temperature thermal spray coating, and the aluminum or aluminum alloy material. forming a low-temperature thermal spray coating on at least a part of a surface of an aluminum or aluminum alloy material by low-temperature thermal spraying a metal powder of at least one metal selected from the group consisting of pure iron, carbon steel, stainless steel, nickel, a nickel alloy, cobalt, and a cobalt alloy; overlapping the aluminum or aluminum alloy material and a steel material such that the low-temperature thermal spray coating and the steel material face each other; and joining the aluminum or aluminum alloy material and the steel material by a laser welding from a steel material side, characterized in that the joining is performed under a welding condition in which a fusion zone is formed in the steel material, the low-temperature thermal spray coating, and the aluminum or aluminum alloy material.
Use of calcined kaolin as a mattifying agent in a cosmetic composition.
An examination table for a medical imaging system, comprising: - a tabletop comprising a tray , said tray comprising a flat upper face and a flat lower face bound together by lateral edges and longitudinal edges , - a table column supporting said tabletop , - a translation system configured to make said tabletop longitudinally translate with respect to said table column , - wherein said translation system comprises a guiding part and a driving part, both said guiding and driving parts being fully integrated in said table column , - wherein said driving part and said guiding part share at least two common rollers rotatable around a vertical axis relative to the tray , - wherein said driving part comprises a motor in the column operable to cause rotation of said common rollers , - wherein said guiding part is adapted to cooperate directly with at least a lateral edge of said tabletop , - wherein said tabletop lateral edges present a convex shape, the convex shape being a triangular shape, and wherein said common rollers cooperate with the convex shape of the lateral edges by direct friction, wherein the common rollers each present a shape corresponding to two cones joined by their top so as to define a v-shaped recess adapted to cooperate with the spike of the triangular shape of the lateral edges of the tabletop . - a tabletop comprising a tray , said tray comprising a flat upper face and a flat lower face bound together by lateral edges and longitudinal edges , - a table column supporting said tabletop , - a translation system configured to make said tabletop longitudinally translate with respect to said table column , - wherein said translation system comprises a guiding part and a driving part, both said guiding and driving parts being fully integrated in said table column , - wherein said driving part and said guiding part share at least two common rollers rotatable around a vertical axis relative to the tray , - wherein said driving part comprises a motor in the column operable to cause rotation of said common rollers , - wherein said guiding part is adapted to cooperate directly with at least a lateral edge of said tabletop , - wherein said tabletop lateral edges present a convex shape, the convex shape being a triangular shape, and
Method for constructing a carton flow bed rack , comprising the steps of: - specifying a number of levels of the carton flow bed rack ; - specifying whether and where each level comprises a load end, and/or an unload end, and/or a stop end; - specifying a height, a width, and a depth of the carton flow bed rack within a predetermined scaling for each of the three dimensions; characterized by further comprising the steps of: - providing accordingly dimensioned components for assembling the carton flow bed rack according to said specifications from standardised components comprising attaching means spaced apart from each other at the respective predetermined scaling, wherein side beams of the carton flow bed rack comprise a plurality of openings as attaching means that are arranged equidistantly from each other at the predetermined depth scaling; - assembling the carton flow bed rack according to the specifications, wherein end beams of the carton flow bed rack are connected to the side beams of the carton flow bed rack by mounting devices each comprising an eccentric stud inserted into a through-hole of an attachment plate , that is arranged with a first flat side facing the side beam , of the mounting device and inserted into the openings of the side beams . - specifying a number of levels of the carton flow bed rack ; - specifying whether and where each level comprises a load end, and/or an unload end, and/or a stop end; - specifying a height, a width, and a depth of the carton flow bed rack within a predetermined scaling for each of the three dimensions; - providing accordingly dimensioned components for assembling the carton flow bed rack according to said specifications from standardised components comprising attaching means spaced apart from each other at the respective predetermined scaling, wherein side beams of the carton flow bed rack comprise a plurality of openings as attaching means that are arranged equidistantly from each other at the predetermined depth scaling; - assembling the carton flow bed rack according to the specifications,
A printer comprising: a printhead configured to selectively cause a mark to be created on a substrate ; a first motor coupled to the printhead and arranged to vary the position of the printhead relative to a printing surface against which printing is carried out to thereby control the pressure exerted by the printhead on the printing surface; and characterized by : a controller arranged to control the first motor in first and second operating modes; wherein: in the first operating mode, the controller is arranged to control the magnitude of current supplied to windings of the first motor so as to cause a predetermined pressure to be exerted by the printhead on the printing surface; and, in the second operating mode, the controller is arranged to control the angular position of an output shaft of the first motor so as to control the position of the printhead relative to the printing surface. a printhead configured to selectively cause a mark to be created on a substrate ; a first motor coupled to the printhead and arranged to vary the position of the printhead relative to a printing surface against which printing is carried out to thereby control the pressure exerted by the printhead on the printing surface; and characterized by : a controller arranged to control the first motor in first and second operating modes; wherein: in the first operating mode, the controller is arranged to control the magnitude of current supplied to windings of the first motor so as to cause a predetermined pressure to be exerted by the printhead on the printing surface; and, in the second operating mode, the controller is arranged to control the angular position of an output shaft of the first motor so as to control the position of the printhead relative to the printing surface. a controller arranged to control the first motor in first and second operating modes; wherein: in the first operating mode, the controller is arranged to control the magnitude of current supplied to windings of the first motor so as to cause a predetermined pressure to be exerted by the printhead on the printing surface; and, in the second operating mode, the controller is arranged to control the angular position of an output shaft of the first motor so as to control the position of the printhead relative to the printing surface. in the first operating mode, the controller is arranged to control the magnitude of current supplied to windings of the first motor so as to cause a predetermined pressure to be exerted by the printhead on the printing surface; and, in the second operating mode, the controller is arranged to control the angular position of an output shaft of the first motor so as to control the position of the printhead relative to the printing surface.
A thermoplastic tube bending method comprising: a step (S1) of preheating a thermoplastic tube (P); a step (S2) of bending the preheated thermoplastic tube by using a forming mold ; and a step (S3) of forming the bent thermoplastic tube (P), characterized in that the forming step (S3) is performed by temperature control of an electric heater provided to the forming mold , wherein the forming mold comprises XY-plane forming molds that are clamped in an X direction to bend the thermoplastic tube (P) in an XY plane, and Z-direction forming molds that are clamped in a Z direction to bend the thermoplastic tube (P) in the Z direction, and wherein both of the forming molds , when clamped, together define a cavity therebetween for forming the thermoplastic tube (P) bent three-dimensionally in X, Y, and Z directions, and wherein the Z-direction forming molds are a pair of forming molds clamped in the Z direction and having opposing distal end surfaces each formed with a forming recess , which, when the forming molds are clamped, define the cavity therebetween for forming the thermoplastic tube bent three-dimensionally in X, Y, and Z directions, and wherein the electric heater is embedded in the Z-direction forming molds . a step (S1) of preheating a thermoplastic tube (P); a step (S2) of bending the preheated thermoplastic tube by using a forming mold ; and a step (S3) of forming the bent thermoplastic tube (P), characterized in that the forming step (S3) is performed by temperature control of an electric heater provided to the forming mold , wherein the forming mold comprises XY-plane forming molds that are clamped in an X direction to bend the thermoplastic tube (P) in an XY plane, and Z-direction forming molds that are clamped in a Z direction to bend the thermoplastic tube (P) in the Z direction, and wherein both of the forming molds , when clamped, together define a cavity therebetween for forming the thermoplastic tube (P) bent three-dimensionally in X, Y, and Z directions, and wherein the Z-direction forming molds are a pair of forming molds clamped in the Z direction and having opposing distal end surfaces each formed with a forming recess , which, when the forming molds are clamped, define the cavity therebetween for forming the thermoplastic tube bent three-dimensionally in X, Y, and Z directions, and wherein the electric heater is embedded in the Z-direction forming molds .
A method of transmitting MPEG Media Transport, MMT, packets in a broadcasting and communication system, the method comprising: receiving MMT Processing Units, MPUs, included in MMT assets, where each MPU is a unit by which a media decoder performs data decompression; generating a plurality of MMT packets from each MPU; generating a Forward Error Correction, FEC, source block, constituted of a predetermined number of MMT packets, by using plural MPUs, included in plural MMT assets; and performing FEC encoding for the generated FEC source block to generate an FEC parity block, transmitting the generated FEC source block, and the generated parity block; characterized in that unless all MMT packets generated from the plural MPUs included in the plural MMT assets are included in the generated FEC source block, it is excluded that the generated FEC source block includes an MMT packet generated from a second MPU included in an MMT asset among the plural MMT assets, the second MPU being different from a first MPU included in the MMT asset, MMT packets generated from the first MPU of the MMT asset being included within the generated FEC source block. receiving MMT Processing Units, MPUs, included in MMT assets, where each MPU is a unit by which a media decoder performs data decompression; generating a plurality of MMT packets from each MPU; generating a Forward Error Correction, FEC, source block, constituted of a predetermined number of MMT packets, by using plural MPUs, included in plural MMT assets; and performing FEC encoding for the generated FEC source block to generate an FEC parity block, transmitting the generated FEC source block, and the generated parity block; characterized in that unless all MMT packets generated from the plural MPUs included in the plural MMT assets are included in the generated FEC source block, it is excluded that the generated FEC source block includes an MMT packet generated from a second MPU included in an MMT asset among the plural MMT assets, the second MPU being different from a first MPU included in the MMT asset, MMT packets generated from the first MPU of the MMT asset being included within the generated FEC source block.