mhurhangee/ep-ind-claims huggingface dataset:
Composition in the form of a nanoemulsion or microemulsion, comprising: - a first fatty acid ester of polyglycerol which is chosen from a fatty acid ester of polyglycerol formed from at least one acid comprising an alkyl or alkenyl chain containing from 12 to 20 carbon atoms and from 3 to 6 glycerol units; - a second fatty acid ester of (poly)glycerol (c) which is chosen from a fatty acid ester of (poly)glycerol formed from at least one acid comprising an alkyl or alkenyl chain containing from 6 to 18 carbon atoms and from 1 to 3 glycerol units; - at least one organopolysiloxane elastomer; - at least two acrylic acid-based polymers that are different from one another; - at least one amphiphilic polymer comprising at least one 2-acrylamidomethylpropanesulfonic acid (AMPS) unit; - at least one oil; - water. - a first fatty acid ester of polyglycerol which is chosen from a fatty acid ester of polyglycerol formed from at least one acid comprising an alkyl or alkenyl chain containing from 12 to 20 carbon atoms and from 3 to 6 glycerol units; - a second fatty acid ester of (poly)glycerol (c) which is chosen from a fatty acid ester of (poly)glycerol formed from at least one acid comprising an alkyl or alkenyl chain containing from 6 to 18 carbon atoms and from 1 to 3 glycerol units; - at least one organopolysiloxane elastomer; - at least two acrylic acid-based polymers that are different from one another; - at least one amphiphilic polymer comprising at least one 2-acrylamidomethylpropanesulfonic acid (AMPS) unit; - at least one oil; - water.
Medical gripping tool, comprising: a plastic body with a first jaw and a second jaw, which plastic body is designed to be deformed in its intended use; characterized in that a metal layer is provided on a surface of the plastic body in the area of at least either the first jaw or the second jaw. a plastic body with a first jaw and a second jaw, which plastic body is designed to be deformed in its intended use; characterized in that a metal layer is provided on a surface of the plastic body in the area of at least either the first jaw or the second jaw.
A faucet, comprising: a base configured to detachably mount to a mounting surface; a sleeve coupled to the base, the sleeve extending upward from the base; a handle body disposed around the sleeve and configured to rotate relative to the base about a longitudinal axis defined by the handle body; a handle extending outwardly from a side of the handle body, the handle extending along a radial axis, which extends radially relative to the longitudinal axis; a first valve having at least a portion disposed within the base; a second valve; and a spout configured to receive and output water; wherein the handle rotates with the handle body about the longitudinal axis to control the first valve; characterized in that the second valve has at least a portion disposed within the handle; and the handle is rotatable relative to the handle body about the radial axis to control the second valve. a base configured to detachably mount to a mounting surface; a sleeve coupled to the base, the sleeve extending upward from the base; a handle body disposed around the sleeve and configured to rotate relative to the base about a longitudinal axis defined by the handle body; a handle extending outwardly from a side of the handle body, the handle extending along a radial axis, which extends radially relative to the longitudinal axis; a first valve having at least a portion disposed within the base; a second valve; and a spout configured to receive and output water; wherein the handle rotates with the handle body about the longitudinal axis to control the first valve; characterized in that the second valve has at least a portion disposed within the handle; and the handle is rotatable relative to the handle body about the radial axis to control the second valve.
Method for controlling an industrial truck, in particular an autonomous industrial truck, which has a multiplicity of components by means of which the industrial truck can be adapted for various operating modes, including at least two of the components comprising a foldable and vertically movable load fork for operation as a lift truck, extendible load arms for picking up a load via an initial lift, mounting of an additional weight for operation as a counter-weight fork-lift truck, and coupling of one or more trailers via a trailer hitch, characterized in that a vehicle controller receives a working order and, on the basis of stored data, selects the adaption of the operating mode and automatically carries out adaption of the components.
Vehicle restraint system which is arranged on a roadway, comprising guide barriers which are fixed to a roadway surface formed from asphalt or different asphalt layers of a roadway covering, wherein the guide barriers are secured by means of screwing in at least one concrete screw in an undersized bore hole with a frost-resistant and water-tight adhesive being interposed in such a manner that a considerable form-fit fastening is achieved by the screwing-in, wherein an excess of the adhesive is discharged between an assembly rail and the upper edge of the bore hole and seals, wherein the material which completely surrounds the bore hole is formed from asphalt or different asphalt layers of the roadway covering.
A dispersant, comprising a block copolymer having a first block and a second block, wherein said first block comprises a first repeating structural unit shown in Formula I) and a second repeating structural unit shown in Formula II): in which R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are independently selected from hydrogen, halogen, cyano, carbonyl, carboxy, nitro, sulfonyl, amide, ester, substituted or unsubstituted C 1 -C 15 alkyl, substituted or unsubstituted C 1 -C 15 alkoxy, and substituted or unsubstituted C 6 -C 30 aryl; and said second block comprises a third repeating structural unit shown in Formula III) and a fourth repeating structural unit shown in Formula IV): in which n represents an average degree of polymerization, that is any integer from 1-25 and R 8, R 9, and R 10 have a dipole moment of greater than 2 × 10 -30 C • m; optionally, R 8, R 9, and R 10 are independently selected from hydroxyl, carboxyl, pyrrolidone, ethylene oxide, propylene oxide, halogen, substituted or unsubstituted C 1 -C 15 alkyl, and substituted or unsubstituted C 1 -C 15 alkoxy, wherein R 9 and R 10 may be joined together as R 9 -O-R 10 or R 9 -NH-R 10. in which R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are independently selected from hydrogen, halogen, cyano, carbonyl, carboxy, nitro, sulfonyl, amide, ester, substituted or unsubstituted C 1 -C 15 alkyl, substituted or unsubstituted C 1 -C 15 alkoxy, and substituted or unsubstituted C 6 -C 30 aryl; and said second block comprises a third repeating structural unit shown in Formula III) and a fourth repeating structural unit shown in Formula IV): in which n represents an average degree of polymerization, that is any integer from 1-25 and R 8, R 9, and R 10 have a dipole moment of greater than 2 × 10 -30 C • m; optionally, R 8, R 9, and R 10 are independently selected from hydroxyl, carboxyl, pyrrolidone, ethylene oxide, propylene oxide, halogen, substituted or unsubstituted C 1 -C 15 alkyl, and substituted or unsubstituted C 1 -C 15 alkoxy, wherein R 9 and R 10 may be joined together as R 9 -O-R 10 or R 9 -NH-R 10.
A microelectrode array, comprising a. an electrode carrier which supports a plurality of microelectrodes disposed on the upper surface of the electrode carrier, b. a cover slip with a surface to which electroconductive cells are adhered, wherein the microelectrodes are configured to transmit or receive an electrical signal to or from the electroconductive cells, c. a chamber, which accommodates the electrode carrier and the cover slip carrying the electroconductive cells, characterized in that the cover slip carrying the electroconductive cells is placed upside-down onto the electrode carrier such that the electroconductive cells are faced towards the microelectrodes and that the electroconductive cells are in electrical contact with the plurality of microelectrodes to receive and transmit electrical signals, wherein the bottom side of the cover slip which bears the electroconductive cells and the upper surface of the electrode carrier form a flow channel within the chamber for transporting fluids to or from the electroconductive cells. a. an electrode carrier which supports a plurality of microelectrodes disposed on the upper surface of the electrode carrier, b. a cover slip with a surface to which electroconductive cells are adhered, wherein the microelectrodes are configured to transmit or receive an electrical signal to or from the electroconductive cells, c. a chamber, which accommodates the electrode carrier and the cover slip carrying the electroconductive cells, characterized in that the cover slip carrying the electroconductive cells is placed upside-down onto the electrode carrier such that the electroconductive cells are faced towards the microelectrodes and that the electroconductive cells are in electrical contact with the plurality of microelectrodes to receive and transmit electrical signals, wherein the bottom side of the cover slip which bears the electroconductive cells and the upper surface of the electrode carrier form a flow channel within the chamber for transporting fluids to or from the electroconductive cells.
Process for manufacturing a structured shaped body or a structured layer from a precursor for an oxide or mixed oxide of one or several metals, selected from magnesium, strontium, barium, aluminum, gallium, indium, silicon, tin, lead and the transition metals, comprising the steps: (a) dissolving at least one compound of the one or several metals in an organic solvent and/or exchanging a ligand of the or one of the dissolved metallic compound(s) for a stabilizing ligand, (b) adding a ligand to the solution that has at least one photochemically polymerizable group and at least one such group that allows a stable complex formation, and forming a sol with or from the product of this reaction (precursor), (c) applying the sol onto a substrate, (d) irradiating the sol anisotropically with light in such a way that in the irradiated areas, a polymerization of the photochemically polymerizable groups takes place, wherein the sol in step (c) is applied in structured form and/or the non-irradiated areas of the sol are removed after polymerization while the shaped body or the structured layer remains, characterized in that step (b) takes place either without additional supporting measures or in that this step is carried out by using a measure through which the equilibrium is shifted towards the product side. (a) dissolving at least one compound of the one or several metals in an organic solvent and/or exchanging a ligand of the or one of the dissolved metallic compound(s) for a stabilizing ligand, (b) adding a ligand to the solution that has at least one photochemically polymerizable group and at least one such group that allows a stable complex formation, and forming a sol with or from the product of this reaction (precursor), (c) applying the sol onto a substrate, (d) irradiating the sol anisotropically with light in such a way that in the irradiated areas, a polymerization of the photochemically polymerizable groups takes place,
A fertilizer applicator and trench closer combination comprising, a bar capable of moving through a field transverse to a direction of travel; a trench forming apparatus connected to the bar for forming a trench in soil, wherein the trench forming apparatus comprises a coulter mounting arm, a coulter fertilizer disc mounted to the coulter mounting arm, a blade mounting arm disposed rearward of the direction of travel to the coulter fertilizer disc and a blade; and a trench closer (2010; 2020) disposed behind the trench forming apparatus in the direction of travel and connected to the trench forming apparatus or the bar, wherein the trench closer is not a disk that rolls in a direction of travel, and wherein the trench forming apparatus is a fertilizer applicator and the trench forming apparatus further comprises a fluid line connected to the blade for delivery of fertilizer. a bar capable of moving through a field transverse to a direction of travel; a trench forming apparatus connected to the bar for forming a trench in soil, wherein the trench forming apparatus comprises a coulter mounting arm, a coulter fertilizer disc mounted to the coulter mounting arm, a blade mounting arm disposed rearward of the direction of travel to the coulter fertilizer disc and a blade; and a trench closer (2010; 2020) disposed behind the trench forming apparatus in the direction of travel and connected to the trench forming apparatus or the bar, wherein the trench closer is not a disk that rolls in a direction of travel, and wherein the trench forming apparatus is a fertilizer applicator and the trench forming apparatus further comprises a fluid line connected to the blade for delivery of fertilizer.
A method comprising: receiving one or more protocol data units by a radio link control sub layer; determining a time period between the receiving of each protocol data unit and a previously received protocol data unit by the radio link control sub layer; initiating recovery procedure for the time period exceeding a first predefined time period, the recovery procedure comprising: identifying a number comprising one or more protocol data units to be recovered; deciphering each protocol data unit among the one or more protocol data units using a plurality of hyper frame numbers; and updating a master hyper frame number based on the deciphering. delivering the one or more protocol data units to a packet data convergence protocol sub layer, wherein type verification of the protocol data unit is performed. receiving one or more protocol data units by a radio link control sub layer; determining a time period between the receiving of each protocol data unit and a previously received protocol data unit by the radio link control sub layer; initiating recovery procedure for the time period exceeding a first predefined time period, the recovery procedure comprising: identifying a number comprising one or more protocol data units to be recovered; deciphering each protocol data unit among the one or more protocol data units using a plurality of hyper frame numbers; and updating a master hyper frame number based on the deciphering. identifying a number comprising one or more protocol data units to be recovered; deciphering each protocol data unit among the one or more protocol data units using a plurality of hyper frame numbers; and updating a master hyper frame number based on the deciphering. delivering the one or more protocol data units to a packet data convergence protocol sub layer, wherein type verification of the protocol data unit is performed.
A semiconductor chip comprising a semiconductor image sensor circuit and a temperature measurement circuit wherein the temperature measurement circuit is integrated in the semiconductor chip and comprises: a plurality of local temperature sensors; and a central processing unit connected to the plurality of local temperature sensors via respective integrated wiring structures in the semiconductor chip; the central processing unit comprising: a control logic unit; an analog-to-digital converter, ADC, circuit for providing digital measurement output data; wherein the control logic unit is connected to the ADC circuit and arranged to select one or more of the plurality of local temperature sensors and execute a measurement cycle for the selected one or more of the plurality of local temperature sensors, characterised in that the plurality of local temperature sensors is distributed at a perimeter of the semiconductor image sensor circuit. a plurality of local temperature sensors; and a central processing unit connected to the plurality of local temperature sensors via respective integrated wiring structures in the semiconductor chip; the central processing unit comprising: a control logic unit; an analog-to-digital converter, ADC, circuit for providing digital measurement output data; wherein the control logic unit is connected to the ADC circuit and arranged to select one or more of the plurality of local temperature sensors and execute a measurement cycle for the selected one or more of the plurality of local temperature sensors, characterised in that the plurality of local temperature sensors is distributed at a perimeter of the semiconductor image sensor circuit. a control logic unit; an analog-to-digital converter, ADC, circuit for providing digital measurement output data; wherein the control logic unit is connected to the ADC circuit and arranged to select one or more of the plurality of local temperature sensors and execute a measurement cycle for the selected one or more of the plurality of local temperature sensors, characterised in that the plurality of local temperature sensors is distributed at a perimeter of the semiconductor image sensor circuit.
An apparatus of a base station, the apparatus comprising: memory; and processing circuitry, configured to: decode, from a User Equipment, uplink control information that indicates a hybrid automatic repeat request identifier (HARQ ID) for a grant-less uplink transmission by the UE during a first sub-frame; attempt to decode the GUL transmission; encode, for transmission to the UE, a first downlink control information that indicates the HARQ ID of the GUL transmission and further indicates whether the GUL transmission is successfully decoded; select, from candidate HARQ IDs, a HARQ ID for a scheduled uplink transmission by another UE in a second subframe after the first sub-frame, wherein: if the GUL transmission is successfully decoded, the processing circuitry is configured to include the HARQ ID for the GUL transmission in the candidate HARQ IDs for the SUL transmission, and if the GUL transmission is not successfully decoded, the processing circuitry is configured to exclude the HARQ ID for the GUL transmission from the candidate HARQ IDs for the SUL transmission; and encode, for transmission, a second DCI that indicates: the SUL transmission by the other UE, and the HARQ ID selected for the SUL transmission. decode, from a User Equipment, uplink control information that indicates a hybrid automatic repeat request identifier (HARQ ID) for a grant-less uplink transmission by the UE during a first sub-frame; attempt to decode the GUL transmission; encode, for transmission to the UE, a first downlink control information that indicates the HARQ ID of the GUL transmission and further indicates whether the GUL transmission is successfully decoded; select, from candidate HARQ IDs, a HARQ ID for a scheduled uplink transmission by another UE in a second subframe after the first sub-frame, wherein: if the GUL transmission is successfully decoded, the processing circuitry is configured to include the HARQ ID for the GUL transmission in the candidate HARQ IDs for the SUL transmission, and if the GUL transmission is not successfully decoded, the processing circuitry is configured to exclude the HARQ ID for the GUL transmission from the candidate HARQ IDs for the SUL transmission; and if the GUL transmission is successfully decoded, the processing circuitry is configured to include the HARQ ID for the GUL transmission in the candidate HARQ IDs for the SUL transmission, and if the GUL transmission is not successfully decoded, the processing circuitry is configured to exclude the HARQ ID for the GUL transmission from the candidate HARQ IDs for the SUL transmission; and encode, for transmission, a second DCI that indicates: the SUL transmission by the other UE, and the HARQ ID selected for the SUL transmission. the SUL transmission by the other UE, and the HARQ ID selected for the SUL transmission.
A computer-implemented method comprising: monitoring actions taken by processes executed by a computing device, the computing device including a memory organized by a file system comprising a directory; responsive to the monitoring, receiving first event information specifying that a first process is traversing the directory; responsive to the monitoring, receiving second event information specifying that the first process or a second process is accessing one or more user data files to encrypt or modify the one or more user data files in a manner consistent with a file access pattern, the second process being associated with the first process; determining, based at least in part on the first process traversing the directory and the first process or the second process accessing the one or more user data files in the manner, that the first process is a security exploit; and causing commitment of a preventative action towards the first process based at least on the determining. monitoring actions taken by processes executed by a computing device, the computing device including a memory organized by a file system comprising a directory; responsive to the monitoring, receiving first event information specifying that a first process is traversing the directory; responsive to the monitoring, receiving second event information specifying that the first process or a second process is accessing one or more user data files to encrypt or modify the one or more user data files in a manner consistent with a file access pattern, the second process being associated with the first process; determining, based at least in part on the first process traversing the directory and the first process or the second process accessing the one or more user data files in the manner, that the first process is a security exploit; and causing commitment of a preventative action towards the first process based at least on the determining.
A safety carabiner, comprising: a body comprising a central portion extended at ends thereof by a first hook-shaped branch and a second branch, respectively, the first branch including a retaining portion comprising a slender end portion, the slender end portion being generally tapered seen from the side, a closing finger pivotably mounted on the second branch of the body around a hinge pin, between a closed position in which the closing finger cooperates with the retaining portion and an open position in which the closing finger is tilted toward the inside of the carabiner, the retaining portion being configured so that, when the carabiner extends transverse to a flat support, and preferably substantially perpendicular to said flat support, and the first and second branches (3b, 3c) of the body are in position bearing on said flat support, the free end of the end portion forms the bearing zone of the first branch on said flat support, characterized in that the end portion of the retaining portion is laterally delimited by at least two substantially flat side surfaces (42, 43) converging toward the free end of the end portion. a body comprising a central portion extended at ends thereof by a first hook-shaped branch and a second branch, respectively, the first branch including a retaining portion comprising a slender end portion, the slender end portion being generally tapered seen from the side, a closing finger pivotably mounted on the second branch of the body around a hinge pin, between a closed position in which the closing finger cooperates with the retaining portion and an open position in which the closing finger is tilted toward the inside of the carabiner, the retaining portion being configured so that, when the carabiner extends transverse to a flat support, and preferably substantially perpendicular to said flat support, and the first and second branches (3b, 3c) of the body are in position bearing on said flat support, the free end of the end portion forms the bearing zone of the first branch on said flat support, characterized in that the end portion of the retaining portion is laterally delimited by at least two substantially flat side surfaces (42, 43) converging toward the free end of the end portion.