mhurhangee/patent-ind-claim-en huggingface dataset:
A lubricating member for a hair removal device comprising, a) a liquid phase, the liquid phase has a melting point of 45°C or less determined according to ASTM-D5440-93, comprising a metathesized unsaturated polyol ester, said metathesized unsaturated polyol ester having one or more of the following properties, measurable in accordance with the description: (i) a weight average molecular weight of from 5,000 Daltons to 50,000 Daltons measured in accordance with the method as described under "Molecular Weight Distribution"; (ii) an oligomer index from greater than 0 to 1 measured in accordance with the method as described under "Oligomer Index" ; (iii) an iodine value of from 30 to 200 measured in accordance with the method as described under " Iodine Value"; b) a lipophilic structurant, the lipophilic structurant having a melting point greater than 45°C to less than 60°C determined according to ASTM-D5440-93; and c) optionally a water soluble polymer, the water soluble polymer having a melting point of 60°C or greater determined according to ASTM-D5440-93. a) a liquid phase, the liquid phase has a melting point of 45°C or less determined according to ASTM-D5440-93, comprising a metathesized unsaturated polyol ester, said metathesized unsaturated polyol ester having one or more of the following properties, measurable in accordance with the description: (i) a weight average molecular weight of from 5,000 Daltons to 50,000 Daltons measured in accordance with the method as described under "Molecular Weight Distribution"; (ii) an oligomer index from greater than 0 to 1 measured in accordance with the method as described under "Oligomer Index" ; (iii) an iodine value of from 30 to 200 measured in accordance with the method as described under " Iodine Value"; (i) a weight average molecular weight of from 5,000 Daltons to 50,000 Daltons measured in accordance with the method as described under "Molecular Weight Distribution"; (ii) an oligomer index from greater than 0 to 1 measured in accordance with the method as described under "Oligomer Index" ; (iii) an iodine value of from 30 to 200 measured in accordance with the method as described under " Iodine Value"; b) a lipophilic structurant, the lipophilic structurant having a melting point greater than 45°C to less than 60°C determined according to ASTM-D5440-93; and c) optionally a water soluble polymer, the water soluble polymer having a melting point of 60°C or greater determined according to ASTM-D5440-93.
A sealing member comprising a sealing section configured to interact with a sealing band of a tube of packaging material in a sealing stage, and a package volume controlling section configured to interact with a first area next to the sealing band of said tube of packaging material in the sealing stage, wherein said package volume controlling section is provided with a socket for holding an insert , wherein the socket is provided with socket protrusions for holding the insert in place, wherein the socket protrusions extend in a sliding direction perpendicular to a surface normal of said package volume controlling section; and characterized in that the socket is arranged for receiving the insert via a section placed opposite to the sealing section.
A method for enforcing a secure print policy, the method comprising: providing a security policy; cryptographically binding the security policy to a print job to generate a secure print job; verifying security properties of a printer using the security policy and a remote attestation protocol; and provided the security properties are verified, releasing the print job to the printer. providing a security policy; cryptographically binding the security policy to a print job to generate a secure print job; verifying security properties of a printer using the security policy and a remote attestation protocol; and provided the security properties are verified, releasing the print job to the printer.
A method implemented in a computing system of editing a volume-based model imaging geological structures, the method comprising: receiving an initial volume-based model having initial geological data defined by a volumetric mesh comprising 3D cells; receiving updated geological data defined within a region of the volume-based model; converting the initial volume-based model into a surface-based model of the initial geological data defined by a plurality of distinct surface meshes comprising 2D cells that form a plurality of horizon and fault surfaces linked by a plurality of 1D stratigraphic fibers defining the stratigraphic spacing between surfaces; editing a defined region of the surface-based model converted from the defined region of the initial volume-based model by editing the positions of a plurality of control nodes at the intersections of the 2D cells and the 1D stratigraphic fibers to conform to the updated geological data in the defined region; converting the edited surface-based model comprising edited 2D cells and edited 1D stratigraphic fibers into an updated volume-based model of edited 3D cells; and storing the updated volume-based model. receiving an initial volume-based model having initial geological data defined by a volumetric mesh comprising 3D cells; receiving updated geological data defined within a region of the volume-based model; converting the initial volume-based model into a surface-based model of the initial geological data defined by a plurality of distinct surface meshes comprising 2D cells that form a plurality of horizon and fault surfaces linked by a plurality of 1D stratigraphic fibers defining the stratigraphic spacing between surfaces; editing a defined region of the surface-based model converted from the defined region of the initial volume-based model by editing the positions of a plurality of control nodes at the intersections of the 2D cells and the 1D stratigraphic fibers to conform to the updated geological data in the defined region; converting the edited surface-based model comprising edited 2D cells and edited 1D stratigraphic fibers into an updated volume-based model of edited 3D cells; and storing the updated volume-based model.
An autonomous cleaner comprising: an auxiliary brush that is attached to a body constituting the autonomous cleaner so as to be capable of collecting dust to a suction port provided in a bottom surface of the body , the auxiliary brush comprising: a short bristle bundle that is a bundle of short bristles; and a long bristle bundle that is a bundle of bristles longer than the short bristle bundle ; an obstacle detection sensor that detects a forward distance that is a distance between a front face of the body and an object; and a distance measuring sensor that detects a sideway distance that is a distance between a side face of the body and an object, wherein the autonomous cleaner rotates at a first position where the forward distance detected by the obstacle detection sensor is a first distance (D1) and the sideway distance detected by the distance measuring sensor is a second distance (D2) and then retreats from the first position to a second position where the forward distance is a third distance (D3) longer than the first distance (D1) and the sideway distance is a fourth distance (D4) longer than the second distance (D2) in order to move from the first position to the second position after the rotation. an auxiliary brush that is attached to a body constituting the autonomous cleaner so as to be capable of collecting dust to a suction port provided in a bottom surface of the body , the auxiliary brush comprising: a short bristle bundle that is a bundle of short bristles; and a long bristle bundle that is a bundle of bristles longer than the short bristle bundle ; an obstacle detection sensor that detects a forward distance that is a distance between a front face of the body and an object; and a distance measuring sensor that detects a sideway distance that is a distance between a side face of the body and an object, wherein the autonomous cleaner rotates at a first position where the forward distance detected by the obstacle detection sensor is a first distance (D1) and the sideway distance detected by the distance measuring sensor is a second distance (D2) and then retreats from the first position to a second position where the forward distance is a third distance (D3) longer than the first distance (D1) and the sideway distance is a fourth distance (D4) longer than the second distance (D2) in order to move from the first position to the second position after the rotation.
A computing system comprising: one or more processors ; memory comprising computer-readable storage devices and/or memory; an outlier quantizer formed from at least one of the processors, the outlier quantizer being in communication with the memory; the computing system being configured to: with at least one of the processors, produce first activation values of a neural network in a first floating-point format, with the outlier quantizer, convert one or more of the first activation values to an outlier block floating-point format, producing second activation values comprising: second values in a second, block floating-point format for all of the first activation values, and outlier values for at least one but not all of the first activation values, and with at least one of the processors, storing the second activation values and the outlier values in the memory; and the outlier quantizer comprises a shifter configured to shift mantissas of the first activation values according to a shared exponent selected for the second values; a portion of each of the shifted first activation values forms a mantissa for a respective one of the second values; and a different portion of the shifted first activation values forms an outlier mantissa for the second activation values having an outlier value. one or more processors ; memory comprising computer-readable storage devices and/or memory; an outlier quantizer formed from at least one of the processors, the outlier quantizer being in communication with the memory; the computing system being configured to: with at least one of the processors, produce first activation values of a neural network in a first floating-point format, with the outlier quantizer, convert one or more of the first activation values to an outlier block floating-point format, producing second activation values comprising: second values in a second, block floating-point format for all of the first activation values, and outlier values for at least one but not all of the first activation values, and with at least one of the processors, produce first activation values of a neural network in a first floating-point format, with the outlier quantizer, convert one or more of the first activation values to an outlier block floating-point format, producing second activation values comprising: second values in a second, block floating-point format for all of the first activation values, and outlier values for at least one but not all of the first activation values, and with at least one of the processors, storing the second activation values and the outlier values in the memory; and the outlier quantizer comprises a shifter configured to shift mantissas of the first activation values according to a shared exponent selected for the second values; a portion of each of the shifted first activation values forms a mantissa for a respective one of the second values; and a different portion of the shifted first activation values forms an outlier mantissa for the second activation values having an outlier value.
A panned sugar shelled confectionery having a shaped solid confectionary center of a fat based material which is coated in a panned sugar shell, wherein the solid confectionary center is provided with at least two hollow sections that extend through a portion of the solid confectionary center, wherein ends of the at least two hollow sections are sealed by the fat based material, wherein the hollow sections reduce the density of the solid center by 5% to 25%, and wherein the at least two hollow sections are optionally filled with a filling.
A tracking system for an analog to digital converter, the tracking system comprising: a transistor switch having a gate node, a source node coupled to an input signal (IN) and a drain node coupled to a sampling capacitor ; a power source circuit connected to the gate node; and a bootstrapping circuit connected to the source node and to the gate node, the bootstrapping circuit comprising a capacitor ; wherein the power source circuit is configured to turn on the transistor switch by charging the gate node of the transistor switch during a first tracking phase; and the bootstrapping circuit is configured to charge the gate node of the transistor switch during a second tracking phase; wherein the first and the second tracking phases are triggered by control signals from a timing generator . a transistor switch having a gate node, a source node coupled to an input signal (IN) and a drain node coupled to a sampling capacitor ; a power source circuit connected to the gate node; and a bootstrapping circuit connected to the source node and to the gate node, the bootstrapping circuit comprising a capacitor ; wherein the power source circuit is configured to turn on the transistor switch by charging the gate node of the transistor switch during a first tracking phase; and the bootstrapping circuit is configured to charge the gate node of the transistor switch during a second tracking phase; wherein the first and the second tracking phases are triggered by control signals from a timing generator .
A destacking conveyor comprising: a conveyor frame extending in length from an upstream end to a downstream end and laterally between two opposite sides ; a conveyor belt advancing in a conveying direction along a length of the conveyor frame and having pushers for pushing packages in a transverse direction (38; 52) toward one or the other side of the conveyor frame ; a vertical wall (44; 70) having a bottom extending in the conveying direction above the conveyor belt and forming a gap (66; 76) between the conveyor belt and the bottom of the vertical wall (44; 70); a series of actuation zones disposed along the length of the conveyor frame and including actuators to selectively actuate the pushers as they advance through the actuation zones ; characterized in that the destacking conveyor comprises: a package detector (58; 78; 86; 92, 93) disposed upstream of the actuation zones to send a detector signal indicating the passage of a stack of packages to the actuators to sequentially actuate the actuation zones to actuate the pushers as they advance through the actuated actuation zones to push the stack in the transverse direction (38; 52) against the vertical wall as the stack advances in the conveying direction so that the top package (T) of the stack is restrained by the vertical wall as the pushers push the bottom package (B) under the vertical wall through the gap to separate the top and bottom packages (T, B) as they advance in the conveying direction and to deactuate each of the actuation zones as the stack proceeds downstream from the actuation zone . a conveyor frame extending in length from an upstream end to a downstream end and laterally between two opposite sides ; a conveyor belt advancing in a conveying direction along a length of the conveyor frame and having pushers for pushing packages in a transverse direction (38; 52) toward one or the other side of the conveyor frame ; a vertical wall (44; 70) having a bottom extending in the conveying direction above the conveyor belt and forming a gap (66; 76) between the conveyor belt and the bottom of the vertical wall (44; 70); a series of actuation zones disposed along the length of the conveyor frame and including actuators to selectively actuate the pushers as they advance through the actuation zones ; characterized in that the destacking conveyor comprises: a package detector (58; 78; 86; 92, 93) disposed upstream of the actuation zones to send a detector signal indicating the passage of a stack of packages to the actuators to sequentially actuate the actuation zones to actuate the pushers as they advance through the actuated actuation zones to push the stack in the transverse direction (38; 52) against the vertical wall as the stack advances in the conveying direction so that the top package (T) of the stack is restrained by the vertical wall as the pushers push the bottom package (B) under the vertical wall through the gap to separate the top and bottom packages (T, B) as they advance in the conveying direction and to deactuate each of the actuation zones as the stack proceeds downstream from the actuation zone .
A communication device for handling temporary user equipment, UE, configuration in a wireless communication system comprising at least one of a long-term evolution, LTE, network and a new radio, NR, network, the communication device comprising: a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device is configured to store and the processing circuit is configured to execute, instructions of: receiving a configuration from a first base station, BS; communicating with the first BS according to the configuration; transmitting a first message to the first BS to request changing the configuration; performing a handover to a second BS; and transmitting the first message to the second BS to request changing the configuration, when connecting to the second BS in response to the handover; wherein the configuration is a carrier aggregation, CA, configuration or a dual connectivity, DC, configuration or a multi-input-multi-output, MIMO, configuration. a storage device ; and a processing circuit , coupled to the storage device , wherein the storage device is configured to store and the processing circuit is configured to execute, instructions of: receiving a configuration from a first base station, BS; communicating with the first BS according to the configuration; transmitting a first message to the first BS to request changing the configuration; performing a handover to a second BS; and transmitting the first message to the second BS to request changing the configuration, when connecting to the second BS in response to the handover; receiving a configuration from a first base station, BS; communicating with the first BS according to the configuration; transmitting a first message to the first BS to request changing the configuration; performing a handover to a second BS; and transmitting the first message to the second BS to request changing the configuration, when connecting to the second BS in response to the handover; wherein the configuration is a carrier aggregation, CA, configuration or a dual connectivity, DC, configuration or a multi-input-multi-output, MIMO, configuration.
A surgical implant comprising: a metallic substrate; a tantalum interlayer disposed adjacent to the metallic substrate and comprising α-tantalum and β-tantalum; at least one diamond like carbon ("DLC") layer disposed adjacent the tantalum interlayer; wherein the tantalum interlayer has a phase gradient from β-tantalum to α-tantalum between a metallic substrate side and a DLC side; wherein the DLC layer has a hardness value and an elastic modulus value; and wherein the hardness value has a gradient increasing away from the tantalum side; and wherein the elastic modulus value has a gradient increasing away from the tantalum side. a metallic substrate; a tantalum interlayer disposed adjacent to the metallic substrate and comprising α-tantalum and β-tantalum; at least one diamond like carbon ("DLC") layer disposed adjacent the tantalum interlayer; wherein the tantalum interlayer has a phase gradient from β-tantalum to α-tantalum between a metallic substrate side and a DLC side; wherein the DLC layer has a hardness value and an elastic modulus value; and wherein the hardness value has a gradient increasing away from the tantalum side; and wherein the elastic modulus value has a gradient increasing away from the tantalum side.
Method for preparing a block copolymer of the aromatic polyether type, comprising the following successive steps: a) preparing a first polymer block having the repeat unit: with number mean molar mass M n between 1000 and 30,000 g/mol and where n is an integer greater than 1, X is Cl or F and Y is CO or SO 2 , the preparation of said first block consisting of the reaction between a 1,4:3,6-dianhydrohexitol and an excess of a halogenated bis-aromatic compound selected from 4,4'-dichlorodiphenyl sulfone, 4,4'-difluorodiphenyl sulfone, 4,4'-difluorodiphenyl ketone and 4,4'-dichlorodiphenyl ketone in the presence of a base in an organic solvent, b) preparing a second polymer block having the repeat unit: with number mean molar mass M n between 1000 and 30,000 g/mol and where m is an integer understood greater than 1 and R comes from an aromatic or aliphatic diol, the preparation of the second block consisting of the reaction between an aromatic or aliphatic diol in excess or in stoichiometric quantity with 4,4'-dichlorodiphenyl sulfone or 4,4'-difluorodiphenyl sulfone in the presence of a base in an organic solvent and optionally a co-solvent, c) reaction between the first block and the second block according to block copolymerisation in two successive steps or block copolymerisation in two distinct steps. a) preparing a first polymer block having the repeat unit: with number mean molar mass M n between 1000 and 30,000 g/mol and where n is an integer greater than 1, X is Cl or F and Y is CO or SO 2 , the preparation of said first block consisting of the reaction between a 1,4:3,6-dianhydrohexitol and an excess of a halogenated bis-aromatic compound selected from 4,4'-dichlorodiphenyl sulfone, 4,4'-difluorodiphenyl sulfone, 4,4'-difluorodiphenyl ketone and 4,4'-dichlorodiphenyl ketone in the presence of a base in an organic solvent, with number mean molar mass M n between 1000 and 30,000 g/mol and where n is an integer greater than 1, X is Cl or F and Y is CO or SO 2 , the preparation of said first block consisting of the reaction between a 1,4:3,6-dianhydrohexitol and an excess of a halogenated bis-aromatic compound selected from 4,4'-dichlorodiphenyl sulfone, 4,4'-difluorodiphenyl sulfone, 4,4'-difluorodiphenyl ketone and 4,4'-dichlorodiphenyl ketone in the presence of a base in an organic solvent, b) preparing a second polymer block having the repeat unit: with number mean molar mass M n between 1000 and 30,000 g/mol and where m is an integer understood greater than 1 and R comes from an aromatic or aliphatic diol, the preparation of the second block consisting of the reaction between an aromatic or aliphatic diol in excess or in stoichiometric quantity with 4,4'-dichlorodiphenyl sulfone or 4,4'-difluorodiphenyl sulfone in the presence of a base in an organic solvent and optionally a co-solvent, c) reaction between the first block and the second block according to block copolymerisation in two successive steps or block copolymerisation in two distinct steps.
A method of separating a double bond-containing linear hydrocarbon in which every hydrogen atom is replaced with a fluorine atom or a chlorine atom, comprising bringing a treatment subject containing a double bond-containing linear hydrocarbon in which every hydrogen atom is replaced with a fluorine atom or a chlorine atom and a double bond-containing alicyclic hydrocarbon in which every hydrogen atom is replaced with a fluorine atom or a chlorine atom into contact with at least one amine compound selected from the group consisting of a heterocyclic aromatic amine compound and a tertiary amine represented by a formula: NR 1 R 2 R 3 , where R 1 , R 2 , and R 3 are each independently an alkyl group, and two among R 1 , R 2 , and R 3 may in combination form an alkylene group that is optionally interrupted by an oxygen atom or a sulfur atom.