mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a composite paving element, comprising a concrete body and a tile body which provides a visible side, wherein a mould is provided which has a mould cavity bounded by a mould bottom and upright walls, wherein the tile body is arranged in the mould cavity with the visible side of the tile body directed toward the mould bottom, wherein a back side of the tile body is provided with an adhesive layer (30,35), wherein the mould is filled with a concrete mortar, and wherein the concrete mortar is compacted into the concrete body, wherein the tile body comprises on the back side an inner area as well as a peripheral area extending all around the inner area, that the adhesive layer is provided in the inner area and outside the peripheral area, that the concrete mortar is compacted into the concrete body at a pressure of more than 0,8 MPa (≈80 tons/m 2), particularly at a pressure of between 1 and 15 MPa (≈100-1500 tons/m 2), and preferably at a pressure of between about 1,0 and 1,2 MPa (≈100-120 tons/m 2), and that the concrete body is formed to adjacent the peripheral area of the tile body, characterized in that a flowing adhesive mortar is applied as the adhesive layer.
A cleansing product for cleaning inanimate surfaces, the cleansing product comprising: an absorbent material, a polymeric network, and a cleansing composition, the cleansing composition comprising a surfactant, wherein the cleansing product is capable of expanding to a size of from 80% to 100% of its final expanded volume when contacted with warm water having a temperature of from 19°C to 65°C in no sooner than 10 seconds.
A method for interactive logic fault tolerance in an online game, comprising: sending, by a client, a user data acquisition request to a game server when the client cannot determine whether game data of the client is consistent with game data of the game server; returning, by the game server, a game data response to the client, and the game data response comprises game data requested by the user data acquisition request; characterised by: comparing, by the client, the game data returned by the game server with the game data stored locally; determining, by the client, that there is a fault in game data of the client when the game data returned by the game server is inconsistent with the game data stored locally; sending, by the client, a game data synchronization request to the game server; returning, by the game server, a game data synchronization response to the client, the game data synchronization response comprising correct game data corresponding to the false game data; and updating, by the client, the game data of the dient according to the game data synchronization response. sending, by a client, a user data acquisition request to a game server when the client cannot determine whether game data of the client is consistent with game data of the game server; returning, by the game server, a game data response to the client, and the game data response comprises game data requested by the user data acquisition request; characterised by: comparing, by the client, the game data returned by the game server with the game data stored locally; determining, by the client, that there is a fault in game data of the client when the game data returned by the game server is inconsistent with the game data stored locally; sending, by the client, a game data synchronization request to the game server; returning, by the game server, a game data synchronization response to the client, the game data synchronization response comprising correct game data corresponding to the false game data; and updating, by the client, the game data of the dient according to the game data synchronization response. comparing, by the client, the game data returned by the game server with the game data stored locally; determining, by the client, that there is a fault in game data of the client when the game data returned by the game server is inconsistent with the game data stored locally; sending, by the client, a game data synchronization request to the game server; returning, by the game server, a game data synchronization response to the client, the game data synchronization response comprising correct game data corresponding to the false game data; and updating, by the client, the game data of the dient according to the game data synchronization response.
Method for identifying a rider of a two-wheeled vehicle, comprising the identifying steps of: • acquiring at least one operating variable of the two-wheeled vehicle that represents the pedaling of the rider in the form of the torque and/or rotational speed of the pedals generated by the rider, and • carrying out an identification of the rider in dependence on ° the temporal behaviour of the at least one operating variable and ° comparison data assigned to the rider, and • outputting an identification signal, in particular a positive or negative identification signal, in dependence on the identification. • acquiring at least one operating variable of the two-wheeled vehicle that represents the pedaling of the rider in the form of the torque and/or rotational speed of the pedals generated by the rider, and • carrying out an identification of the rider in dependence on ° the temporal behaviour of the at least one operating variable and ° comparison data assigned to the rider, and ° the temporal behaviour of the at least one operating variable and ° comparison data assigned to the rider, and • outputting an identification signal, in particular a positive or negative identification signal, in dependence on the identification.
A a) priming vaccine in a priming dose effective to establish an immune response, wherein the priming vaccine is a PfCSP DNA vaccine; and b) a boosting vaccine in a boosting dose effective to boost the primed immune response, wherein the boosting vaccine comprises RTS,S protein and a Th1 inducing adjuvant, for use in immunising a human against Plasmodium falciparum, wherein the priming vaccine primes CD8+ T cells and the subsequent administration of the boosting vaccine recalls the primed CD8+ T cells, broadens the primed CD8+ T cell response, and results in the generation of anti- P. falciparum CD8+ T cells, anti- P. falciparum CD4+ T cells, and anti- P. falciparum antibodies. a) priming vaccine in a priming dose effective to establish an immune response, wherein the priming vaccine is a PfCSP DNA vaccine; and b) a boosting vaccine in a boosting dose effective to boost the primed immune response, wherein the boosting vaccine comprises RTS,S protein and a Th1 inducing adjuvant, for use in immunising a human against Plasmodium falciparum, wherein the priming vaccine primes CD8+ T cells and the subsequent administration of the boosting vaccine recalls the primed CD8+ T cells, broadens the primed CD8+ T cell response, and results in the generation of anti- P. falciparum CD8+ T cells, anti- P. falciparum CD4+ T cells, and anti- P. falciparum antibodies.
An airbag cover layer comprising a predetermined breaking zone, said predetermined breaking zone having a main extension and a plurality of weakenings (26, 28, 30, 32, 34; 42, 44, 46, 48, 50) arranged along said main extension, characterized in that at least one weakening of said plurality of weakenings intersects a preceding weakening and also intersects a subsequent weakening, wherein said at least one weakening (26, 28, 30, 32, 34; 42, 44, 46, 48, 50) has at least two ends (28a, 28b) and intersects said preceding weakening at a position located x% of a length along said weakening as measured from the end closest to the preceding weakening, wherein 0% < x ≤ 50%.
A pixel structure, characterized in that the pixel structure comprises: a substrate; a black photoresist layer deposited on the substrate, the black photoresist layer comprising a receiving cavity and an isolation region, and the isolation region is provided in the receiving cavity; a polyelectrolyte layer, the polyelectrolyte layer is coated on the black photoresist layer expect the isolation region; a metal nanoparticle layer, the metal nanoparticle layer is covered on the polyelectrolyte layer; a micro light emitting diode, the micro light emitting diode is disposed on the isolation region; wherein the metal nanoparticle comprising at least one of Au, Ag, Cu, Ni, Co, Pt and/or an alloy formed by at least two of Au, Ag, Cu, Ni, Co and Pt; and the polyelectrolyte layer comprising at least one of Poly Diallyl Dimethyl Ammonium Chloride, Sodium Polyacrylate, Poly Dimethyl Diallyl Ammonium Chloride, and Acrylic Acid-Vinylpyridine Copolymer. a substrate; a black photoresist layer deposited on the substrate, the black photoresist layer comprising a receiving cavity and an isolation region, and the isolation region is provided in the receiving cavity; a polyelectrolyte layer, the polyelectrolyte layer is coated on the black photoresist layer expect the isolation region; a metal nanoparticle layer, the metal nanoparticle layer is covered on the polyelectrolyte layer; a micro light emitting diode, the micro light emitting diode is disposed on the isolation region; wherein the metal nanoparticle comprising at least one of Au, Ag, Cu, Ni, Co, Pt and/or an alloy formed by at least two of Au, Ag, Cu, Ni, Co and Pt; and the polyelectrolyte layer comprising at least one of Poly Diallyl Dimethyl Ammonium Chloride, Sodium Polyacrylate, Poly Dimethyl Diallyl Ammonium Chloride, and Acrylic Acid-Vinylpyridine Copolymer.
A method of operation of a node (18, 22, 36, 38) associated with one or more cellular communications networks, comprising: obtaining position-pair-dependent interference related information for pairs of positions, the position-pair-dependent interference related information comprising, for each pair of positions comprising a first position and a second position, information regarding interference caused by wireless transmissions originating at the first position to wireless receptions at the second position; storing interference related information comprising the position-pair-dependent interference related information in one or more databases; and providing access to the one or more databases. obtaining position-pair-dependent interference related information for pairs of positions, the position-pair-dependent interference related information comprising, for each pair of positions comprising a first position and a second position, information regarding interference caused by wireless transmissions originating at the first position to wireless receptions at the second position; storing interference related information comprising the position-pair-dependent interference related information in one or more databases; and providing access to the one or more databases.
Device for setting and/or measuring a tool, comprising a frame or lower part, a holder, which is arranged on the frame or lower part, is rotatable about a centre axis and is intended for holding the tool, and a measuring element carrier, which is movable in a first axis and a second axis that extends at right angles to the first axis, and also a measuring element (14, 15), which is intended for optical measurement of the tool and is arranged on the measuring element carrier, and a reference body, wherein the measuring element carrier is assigned the reference body, which is movable between a standby position and a measuring position on the tool, for interaction with the measuring element (14, 15) in a positional determination of the tool by a measuring optical unit of the measuring element (14, 15), wherein the reference body is movably arranged on the measuring element carrier and the reference body offers a light beam a clearly defined and distinct edge, which can be focused by a measuring optical unit during the positional determination of the tool, characterized by a pivotable or displaceable arm, on which the reference body is fastened in an articulated manner.
A method for measuring a surface of a tire formed by laminating a rubber strip on a building support comprising the steps of: bonding a rubber strip on a building support by a bonding roller which is supported by support means so as to be freely movable in an X-Y plane including a main axis of the building support and being defined by an X axis parallel to the main axis and a Y axis perpendicular to the X axis, measuring the profile of an entire surface of the tire including side surfaces parallel to the X-Y plane by a measuring means, the measuring means being integrally attached to the bonding roller and displaced therefrom in a Z axis direction perpendicular to the X-Y plane, the measuring means moving in the X and Y axis directions and also rotating about the Z axis, so as to form a right angle with a surface of the tire; and correcting the resulting measurement data measured by the displacement measuring means, by a correction means, according to a difference between a laminating position on the tire building support and a measuring position of the measuring device, wherein estimated surface shape data of the tire at the laminating position is obtained according to the corrected measurement data. bonding a rubber strip on a building support by a bonding roller which is supported by support means so as to be freely movable in an X-Y plane including a main axis of the building support and being defined by an X axis parallel to the main axis and a Y axis perpendicular to the X axis, measuring the profile of an entire surface of the tire including side surfaces parallel to the X-Y plane by a measuring means, the measuring means being integrally attached to the bonding roller and displaced therefrom in a Z axis direction perpendicular to the X-Y plane, the measuring means moving in the X and Y axis directions and also rotating about the Z axis, so as to form a right angle with a surface of the tire; and correcting the resulting measurement data measured by the displacement measuring means, by a correction means, according to a difference between a laminating position on the tire building support and a measuring position of the measuring device, wherein estimated surface shape data of the tire at the laminating position is obtained according to the corrected measurement data.
Coating device, in particular a coating device having a throw-off and/or distribution function for ridding parts at least partially wetted with excess liquid, in particular excess coating material, comprising: at least two holders (210A, 210B) which are fastened to a rotor and which are each designed to receive, preferably in a suspended manner, a container (10A, 10B) to be filled with parts to be coated, wherein the containers (10A, 10B) preferably comprise a container wall that is at least partially permeable to liquid, a first drive which has a first rotary shaft that can be driven about a rotor axis of rotation for rotatably driving the rotor, a second drive which is provided for rotatably driving the two holders (210A, 210B) fastened to the rotor, in each case about a holder axis of rotation (A2, A3), wherein the rotor axis of rotation and the two holder axes of rotation (A2, A3) are preferably oriented approximately parallel to one another, and a primary part of the second drive is rigidly connected to the first rotary shaft, wherein the primary part is fastened to the first rotary shaft and a secondary part of the second drive is rotatably mounted on the first rotary shaft, wherein the axis of rotation of the second drive is collinear with the rotor axis of rotation of the first rotary shaft. at least two holders (210A, 210B) which are fastened to a rotor and which are each designed to receive, preferably in a suspended manner, a container (10A, 10B) to be filled with parts to be coated, wherein the containers (10A, 10B) preferably comprise a container wall that is at least partially permeable to liquid, a first drive which has a first rotary shaft that can be driven about a rotor axis of rotation for rotatably driving the rotor, a second drive which is provided for rotatably driving the two holders (210A, 210B) fastened to the rotor, in each case about a holder axis of rotation (A2, A3), wherein the rotor axis of rotation and the two holder axes of rotation (A2, A3) are preferably oriented approximately parallel to one another, and a primary part of the second drive is rigidly connected to the first rotary shaft, wherein the primary part is fastened to the first rotary shaft and a secondary part of the second drive is rotatably mounted on the first rotary shaft, wherein the axis of rotation of the second drive is collinear with the rotor axis of rotation of the first rotary shaft.
A needle mechanism module, comprising: a rail housing component; a slide insert component coupled to the rail housing component and configured to slide along the rail housing component; a slide retract component coupled to the rail housing component and configured to slide along the rail housing component; a hard stop component coupled to a first end of the rail housing component, the slide insert component and the slide retract component positioned toward a second, opposite end of the rail housing component, the slide insert component positioned closer to the hard stop component; an insert extension spring coupled to the hard stop component and to the slide insert component; a retract compression spring positioned between the slide insert component and the slide retract component; a tension lock component positioned through the slide insert component and the slide retract component and configured to couple the slide insert component to the slide retract component; an insert lock positioned against the slide insert component and configured to restrict movement of the slide insert component and the slide retract component toward the hard stop by the insert spring; a needle coupled to the slide insert component and the slide retract component, the needle further coupled to a liquid drug stored in a reservoir of a wearable drug delivery device; and a cannula surrounding a portion of the needle extending from the slide insert component, an end of the cannula coupled to the slide insert component. a rail housing component; a slide insert component coupled to the rail housing component and configured to slide along the rail housing component; a slide retract component coupled to the rail housing component and configured to slide along the rail housing component; a hard stop component coupled to a first end of the rail housing component, the slide insert component and the slide retract component positioned toward a second, opposite end of the rail housing component, the slide insert component positioned closer to the hard stop component; an insert extension spring coupled to the hard stop component and to the slide insert component; a retract compression spring positioned between the slide insert component and the slide retract component; a tension lock component positioned through the slide insert component and the slide retract component and configured to couple the slide insert component to the slide retract component; an insert lock positioned against the slide insert component and configured to restrict movement of the slide insert component and the slide retract component toward the hard stop by the insert spring; a needle coupled to the slide insert component and the slide retract component, the needle further coupled to a liquid drug stored in a reservoir of a wearable drug delivery device; and a cannula surrounding a portion of the needle extending from the slide insert component, an end of the cannula coupled to the slide insert component.
A complex comprising N-(2-hydroxypropyl)-3-trimethylammonium chitosan chloride and chondroitin sulfate A, chondroitin sulfate B or chondroitin sulfate E.
Method for operating an electrically commutated machine, characterized in that in at least one method step of an overmodulation operation of the electrically commutated machine a precommutation angle of the electrically commutated machine is set depending on an efficiency of the electrically commutated machine and on the basis of at least one continuous current characteristic curve of the electrically commutated machine.
A method for on-line preparation of a sample for mass spectrometry analysis comprising: performing liquid chromatography by: a. introducing a sample comprising a polypeptide having at least one disulfide bond to a liquid chromatography column, wherein the liquid chromatography column is configured to fluidly couple to an ion source of a mass spectrometer; b. retaining the polypeptide on the liquid chromatography column; and c. flowing an eluent continuously through the liquid chromatography column so as to elute the polypeptide from the liquid chromatography column as an eluate, the eluent comprising a mobile phase gradient and wherein the eluent is flowed through the liquid chromatography column without having exposed the polypeptide to an alkylating agent; and wherein the method is characterized by, between steps b and c, flowing a solution comprising a reducing agent continuously through the liquid chromatography column so as to cleave one or more of the at least one disulfide bonds of the retained polypeptide while the reducing solution is flowed therethrough; wherein the reduced polypeptide is eluted in step c; and wherein the method further comprises delivering the eluate containing the reduced polypeptide to the ion source. performing liquid chromatography by: a. introducing a sample comprising a polypeptide having at least one disulfide bond to a liquid chromatography column, wherein the liquid chromatography column is configured to fluidly couple to an ion source of a mass spectrometer; b. retaining the polypeptide on the liquid chromatography column; and c. flowing an eluent continuously through the liquid chromatography column so as to elute the polypeptide from the liquid chromatography column as an eluate, the eluent comprising a mobile phase gradient and wherein the eluent is flowed through the liquid chromatography column without having exposed the polypeptide to an alkylating agent; and a. introducing a sample comprising a polypeptide having at least one disulfide bond to a liquid chromatography column, wherein the liquid chromatography column is configured to fluidly couple to an ion source of a mass spectrometer; b. retaining the polypeptide on the liquid chromatography column; and c. flowing an eluent continuously through the liquid chromatography column so as to elute the polypeptide from the liquid chromatography column as an eluate, the eluent comprising a mobile phase gradient and wherein the method is characterized by, between steps b and c, flowing a solution comprising a reducing agent continuously through the liquid chromatography column so as to cleave one or more of the at least one disulfide bonds of the retained polypeptide while the reducing solution is flowed therethrough; wherein the reduced polypeptide is eluted in step c; and wherein the method further comprises delivering the eluate containing the reduced polypeptide to the ion source.