mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum chuck comprising: a base including a placement section on which an object is placed, and a coating film that coats at least a part of the placement section , wherein the placement section has a bottom face , a plurality of projections protruding from the bottom face , and an annular protrusion that protrudes from the bottom face at the same height as the plurality of projections and surrounds the plurality of projections , characterized in that the coating film has a first region that coats top faces of the projections , and a second region that coats a top face of the annular protrusion and has a smaller thickness than that of the first region . a base including a placement section on which an object is placed, and a coating film that coats at least a part of the placement section , wherein the placement section has a bottom face , a plurality of projections protruding from the bottom face , and an annular protrusion that protrudes from the bottom face at the same height as the plurality of projections and surrounds the plurality of projections , characterized in that the coating film has a first region that coats top faces of the projections , and a second region that coats a top face of the annular protrusion and has a smaller thickness than that of the first region .
A method for trusted presentation of information on an untrusted user device , the method comprising: connecting a secure portable device to the untrusted user device ; receiving , by the secure portable device , data from the untrusted user device ; analyzing , by the secure portable device , the received data to identify therein information intended for display to the user via the untrusted user device ; generating , by the secure portable device , a video stream containing at least part of the information intended for display to the user; generating and inserting into the video stream, by the secure portable device , one or more protection elements that serve to authenticate the information being outputted in the video stream by correlating the one or more protection elements with at least a portion of information input or output on a user interface of the secure portable device ; and transmitting , by the secure portable device , the video stream inserted with the one or more protection elements to the untrusted user device . connecting a secure portable device to the untrusted user device ; receiving , by the secure portable device , data from the untrusted user device ; analyzing , by the secure portable device , the received data to identify therein information intended for display to the user via the untrusted user device ; generating , by the secure portable device , a video stream containing at least part of the information intended for display to the user; generating and inserting into the video stream, by the secure portable device , one or more protection elements that serve to authenticate the information being outputted in the video stream by correlating the one or more protection elements with at least a portion of information input or output on a user interface of the secure portable device ; and transmitting , by the secure portable device , the video stream inserted with the one or more protection elements to the untrusted user device .
A method for manufacturing a wood-based panel comprising the following steps in the indicated order: • Provision of wood chips; • Breaking down the wood chips into wood fibers in a refiner for 3 to 20 minutes at a pressure of 4 to 16 bar; • Gluing the wood fibers with a phenolic resin, the ratio by weight based on the solids content of resin to wood fibers being 10 to 50 parts of resin to 100 parts of wood fibers; • Pre-compacting the fibers in a press at pressing temperatures below 110 °C to form chemically reactive fiber boards; and • Pressing the pre-compacted fiber boards into panels at temperatures between 130 and 180 °C. • Provision of wood chips; • Breaking down the wood chips into wood fibers in a refiner for 3 to 20 minutes at a pressure of 4 to 16 bar; • Gluing the wood fibers with a phenolic resin, the ratio by weight based on the solids content of resin to wood fibers being 10 to 50 parts of resin to 100 parts of wood fibers; • Pre-compacting the fibers in a press at pressing temperatures below 110 °C to form chemically reactive fiber boards; and • Pressing the pre-compacted fiber boards into panels at temperatures between 130 and 180 °C.
Holding device for detachably holding a battery , in particular a bicycle battery, on a bicycle frame , having at least one carrier unit for at least partially receiving and/or guiding the battery , and having at least one locking unit , arranged on the carrier unit , in particular at least for the most part within the frame, for one-sided detachable, in particular axial, fixing of the battery to the carrier unit , wherein the locking unit has a first locking element and a second locking element which corresponds to the first locking element , which are mounted in a movable, in particular rotatable, manner on a main body of the locking unit , and wherein the locking unit has at least one bracing unit , characterized in that the bracing unit is intended to subject the battery , in a state arranged on the locking unit , to a bracing force in the direction of the locking unit , wherein a first bracing element of the bracing unit is arranged on the first locking element and a second bracing element of the bracing unit is arranged on the second locking element , wherein the first locking element , in a locking state, blocks a movement, in particular a rotation, of the second locking element .
A station for sealing thermoplastic containers (C) for a packaging line comprising a sealing carousel which can rotate continuously about a central axis (H) which comprises a plurality of sealing heads which are radially spaced apart from said central axis (H), each sealing head being adapted to: - receive at least one container (C) to be sealed at a first, input, peripheral region , which is outside the sealing carousel ; - receive at least one closing seal (S) at a second, input, peripheral region , which is outside the sealing carousel ; - hold the closing seal (S) and the container (C) during the rotation of the sealing carousel and couple them together; - release the container (C) complete with the closing seal (S) at a third, output, peripheral region , which is outside the sealing carousel and angularly spaced from the first and from the second region , wherein each sealing head comprises an assembly for picking up and sealing , and an abutment assembly , wherein: - the assembly for picking up and sealing is adapted at least to pick up the closing seal (S) and to perform the operation of mutually coupling this closing seal and the container (C); - the abutment assembly is adapted at least to support the closing seal (S) and the container (C) and to cooperate with the assembly for picking up and sealing during an operation of mutual coupling and fixing between the closing seal (S) and the container (C), characterized in that each sealing head further comprises an assembly for gripping and positioning which is adapted at least to support and move, at various moments during operation, the container (C) and the closing seal (S) which arrive from the respective first and second region . - receive at least one container (C) to be sealed at a first, input, peripheral region , which is outside the sealing carousel ; - receive at least one closing seal (S) at a second, input, peripheral region , which is outside the sealing carousel ; - hold the closing seal (S) and the container (C) during the rotation of the sealing carousel and couple them together; - release the container (C) complete with the closing seal (S) at a third, output, peripheral region , which is outside the sealing carousel and angularly spaced from the first and from the second region , - the assembly for picking up and sealing is adapted at least to pick up the closing seal (S) and to perform the operation of mutually coupling this closing seal and the container (C); - the abutment assembly is adapted at least to support the closing seal (S) and the container (C) and to cooperate with the assembly for picking up and sealing during an operation of mutual coupling and fixing between the closing seal (S) and the container (C),
An apparatus for lifting a load on an automated lifting cart , the apparatus comprising: a lifting surface connected to the lifting cart and vertically movable relative to the lifting cart ; a first and a second pair of cams , each pair of cams positioned underneath the lifting surface and having cam profiles shaped to lift the lifting surface upon rotation of each pair of cams ; characterized in that : the cam profiles of the first pair of cams are reversed in orientation in relation to the cam profiles of the second pair of cams , and in that the first pair of cams is configured to rotate in an opposing direction from the second pair of cams ; the apparatus further comprising: a first encoder operable to read a rotation property of the first pair of cams , and a second encoder operable to read a rotation property of the second pair of cams ; a controller configured to control rotational movement of each of the first and second pairs of cams , the controller synchronizing the rotation properties of the first and second pairs of cams by matching output from the first and second encoders, a plurality of cam followers extending below the lifting surface to contact the first and second pairs of cams . a lifting surface connected to the lifting cart and vertically movable relative to the lifting cart ; a first and a second pair of cams , each pair of cams positioned underneath the lifting surface and having cam profiles shaped to lift the lifting surface upon rotation of each pair of cams ; the cam profiles of the first pair of cams are reversed in orientation in relation to the cam profiles of the second pair of cams , and in that the first pair of cams is configured to rotate in an opposing direction from the second pair of cams ; the apparatus further comprising: a first encoder operable to read a rotation property of the first pair of cams , and a second encoder operable to read a rotation property of the second pair of cams ; a controller configured to control rotational movement of each of the first and second pairs of cams , the controller synchronizing the rotation properties of the first and second pairs of cams by matching output from the first and second encoders, a plurality of cam followers extending below the lifting surface to contact the first and second pairs of cams . a first encoder operable to read a rotation property of the first pair of cams , and a second encoder operable to read a rotation property of the second pair of cams ; a controller configured to control rotational movement of each of the first and second pairs of cams , the controller synchronizing the rotation properties of the first and second pairs of cams by matching output from the first and second encoders, a plurality of cam followers extending below the lifting surface to contact the first and second pairs of cams .
A transmitter , wherein the transmitter is configured to transmit signals each comprising one pilot sequence comprising several pilot sequence symbols, wherein the transmitter comprises a signal generator , wherein the signal generator is configured to provide the pilot sequence based on a base sequence comprising several base sequence symbols, wherein the signal generator provides the pilot sequence with L pilot sequence symbols by repeating each base sequence symbol R-1 times in succession so that each base sequence symbol is present R times, wherein L is a natural number, and wherein R is a natural number greater than or equal to two and is a divisor of L, wherein the base sequence is configured such that a correlation of the pilot sequence with a transmission signal formed from the pilot sequence comprises a main maximum which is as narrow as possible and/or secondary maximums which are as small as possible, characterized in that the pilot sequence comprises eight or twelve pilot sequence symbols, wherein, in case the pilot sequence comprises eight pilot sequence symbols, the base sequence comprises one of the following forms: 0010 or 1101 or 0100 or 1011, and wherein the zeros and ones are each the binary base sequence bits; wherein, in case the pilot sequence comprises twelve pilot sequence symbols, the base sequence comprises one of the following forms or forms obtained therefrom by reversing the bit order: 000101, 001011, 001101, 010001, 111010, 110100, 110010 or 101110, and wherein the zeros and ones are each the binary base sequence bits.
Cushion for a motor vehicle seat, said cushion comprising: - an elastically compressible padding block , - a flexible cover covering said block, - an electrical circuit based on conductive ink printed on the reverse side of said cover, said circuit comprising at least one electrically conductive strip , - at least one conductive wire for connecting said circuit to an electrical device, said wire having a portion extending beyond said band so as to be connectable to said device, said cushion being characterized in that said wire also has a portion associated with said strip by needle-stitching, at a plurality of points , said portion through said strip. - an elastically compressible padding block , - a flexible cover covering said block, - an electrical circuit based on conductive ink printed on the reverse side of said cover, said circuit comprising at least one electrically conductive strip , - at least one conductive wire for connecting said circuit to an electrical device, said wire having a portion extending beyond said band so as to be connectable to said device,
A device for printing an image onto a floor surface , wherein the device comprises a controller and a printing system , which includes the following: at least one colorant tank having colorant ; at least one spray bar having multiple nozzle assemblies arranged adjacent to one another, which each have a valve controllable by the controller and a colorant nozzle , via which the colorant can be applied to the floor surface , and a cleaning agent tank , which is connected via one or more supply lines to at least a part of the nozzle assemblies , wherein each of the nozzle assemblies has a cleaning nozzle , which is supplied via the supply line and associated with the respective colorant nozzle and which is arranged so that cleaning agent can be sprayed from the outside onto the colorant nozzle , and wherein the colorant nozzle is connected via a valve to the supply line , so that cleaning agent can be conducted into the interior of the colorant nozzle and sprayed out of the colorant nozzle. at least one colorant tank having colorant ; at least one spray bar having multiple nozzle assemblies arranged adjacent to one another, which each have a valve controllable by the controller and a colorant nozzle , via which the colorant can be applied to the floor surface , and a cleaning agent tank , which is connected via one or more supply lines to at least a part of the nozzle assemblies , wherein each of the nozzle assemblies has a cleaning nozzle , which is supplied via the supply line and associated with the respective colorant nozzle and which is arranged so that cleaning agent can be sprayed from the outside onto the colorant nozzle , and wherein the colorant nozzle is connected via a valve to the supply line , so that cleaning agent can be conducted into the interior of the colorant nozzle and sprayed out of the colorant nozzle.
A method of determining a presence and information of a subsurface hydrocarbon accumulation from a hydrocarbon sample related thereto, the method comprising: obtaining a hydrocarbon sample associated with a subsurface hydrocarbon accumulation; measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons for the sample, wherein the measuring includes determining a noble gas signature of the sample by comparing measured concentrations and isotopic ratios of atmospheric noble gases and radiogenic noble gases present in the sample to measured or modelled concentrations of atmospheric and radiogenic noble gases in formation water that is in contact with the subsurface hydrocarbon accumulation, and at least one or more of determining a clumped isotope signature of the sample by measuring a clumped isotopic signature of the isotopologues present in the sample and comparing the signature with expected concentrations of isotopologues, and characterizing the ecology signature of the sample using one or more of DNA analysis, RNA analysis, metagenomics, proteomics, transcriptomics and lipid analysis; and integrating the noble gas signature and at least one or more of the clumped isotope signature or the ecology signature; and determining, using the integrated signatures a presence of a subsurface hydrocarbon accumulation and at least one of: a depth of hydrocarbons in the subsurface accumulation, a hydrocarbon/water volume ratio in the subsurface accumulation prior to escape to the surface, and a volume of the subsurface accumulation. obtaining a hydrocarbon sample associated with a subsurface hydrocarbon accumulation; measuring molecular and isotopic signatures of non-hydrocarbon gases and hydrocarbons for the sample, wherein the measuring includes determining a noble gas signature of the sample by comparing measured concentrations and isotopic ratios of atmospheric noble gases and radiogenic noble gases present in the sample to measured or modelled concentrations of atmospheric and radiogenic noble gases in formation water that is in contact with the subsurface hydrocarbon accumulation, and at least one or more of determining a clumped isotope signature of the sample by measuring a clumped isotopic signature of the isotopologues present in the sample and comparing the signature with expected concentrations of isotopologues, and characterizing the ecology signature of the sample using one or more of DNA analysis, RNA analysis, metagenomics, proteomics, transcriptomics and lipid analysis; and integrating the noble gas signature and at least one or more of the clumped isotope signature or the ecology signature; and determining, using the integrated signatures a presence of a subsurface hydrocarbon accumulation and at least one of: a depth of hydrocarbons in the subsurface accumulation, a hydrocarbon/water volume ratio in the subsurface accumulation prior to escape to the surface, and a volume of the subsurface accumulation. a depth of hydrocarbons in the subsurface accumulation, a hydrocarbon/water volume ratio in the subsurface accumulation prior to escape to the surface, and a volume of the subsurface accumulation.
A pharmaceutical composition for use in therapeutic or prophylactic treatment of cancer to be administered into a lymph node, comprising, as an active ingredient, at least one anticancer drug selected from anticancer plant alkaloids selected from the group consisting of irinotecan, SN-38, docetaxel and salts of these.
A permanent magnet , wherein a work face of the permanent magnet comprises a first edge and a second edge which are perpendicular to each other, a head endpoint of the first edge is connected to a tail endpoint of the second edge by means of a transition edge , the transition edge is located at a side, adjacent to a center of the work face, of a line connecting the head endpoint with the tail endpoint, and the transition edge comprises at least one sub-arc segment , or a combination of at least one sub-arc segment and at least one sub-straight segment ; characterized by : wherein a first extension line, extending from the head endpoint, of the first edge intersects a second extension line, extending from the tail endpoint, of the second edge at a point of intersection, and the permanent magnet satisfies WL / W 2 + L 2 ≤ Dx ≤ 0.9 W 2 + L 2 ; wherein W denotes a distance between the point of intersection and the head endpoint, L denotes a distance between the point of intersection and the tail endpoint, Dx denotes a distance between the point of intersection and a midpoint of any sub-arc segment . wherein a first extension line, extending from the head endpoint, of the first edge intersects a second extension line, extending from the tail endpoint, of the second edge at a point of intersection, and the permanent magnet satisfies WL / W 2 + L 2 ≤ Dx ≤ 0.9 W 2 + L 2 ; wherein W denotes a distance between the point of intersection and the head endpoint, L denotes a distance between the point of intersection and the tail endpoint, Dx denotes a distance between the point of intersection and a midpoint of any sub-arc segment .
Composition, comprising - a crosslinkable synthetic cis-1,4-polydiene having a cis content of at least 95% and a functional group in the terminal position, - an amphiphilic compound, wherein the amphiphilic compound is a polar lipid, a protein; a glycerol ester of a fatty acid; a cationic surfactant or an amphoteric surfactant or a mixture of at least two of said amphiphilic compounds. - a crosslinkable synthetic cis-1,4-polydiene having a cis content of at least 95% and a functional group in the terminal position, - an amphiphilic compound, wherein the amphiphilic compound is a polar lipid, a protein; a glycerol ester of a fatty acid; a cationic surfactant or an amphoteric surfactant or a mixture of at least two of said amphiphilic compounds.