mhurhangee/ep-ind-claims huggingface dataset:
A sliding member comprising: a back-metal layer having a back surface and a bonding surface; and a sliding layer comprising: a copper alloy on the bonding surface of the back-metal layer; optionally, 0.1 to 10 volume % of hard particles composed of one or more selected from Al 2 O 3, SiO 2, AIN, Mo 2 C, WC, Fe 2 P, and Fe 3 P, the hard particles being dispersed in a matrix of the copper alloy; and optionally, 0.1 to 10 volume % of a solid lubricant composed of one or more selected from MoS 2, WS 2, graphite, and h-BN, the lubricant being dispersed in a matrix of the copper alloy, wherein the back-metal layer comprises a hypoeutectoid steel including 0.07 to 0.35 mass% of carbon and has a structure comprising a ferrite phase and pearlite, wherein the back-metal layer comprises a high ferrite phase portion at the bonding surface, and wherein a volume ratio Pc and a volume ratio Ps satisfy Ps / Pc ≤ 0.4 where the volume ratio Pc is a volume ratio of pearlite in the structure at a center portion in a thickness direction of the back-metal layer, and the volume ratio Ps is a volume ratio of pearlite in the high ferrite phase portion. a back-metal layer having a back surface and a bonding surface; and a sliding layer comprising: a copper alloy on the bonding surface of the back-metal layer; optionally, 0.1 to 10 volume % of hard particles composed of one or more selected from Al 2 O 3, SiO 2, AIN, Mo 2 C, WC, Fe 2 P, and Fe 3 P, the hard particles being dispersed in a matrix of the copper alloy; and optionally, 0.1 to 10 volume % of a solid lubricant composed of one or more selected from MoS 2, WS 2, graphite, and h-BN, the lubricant being dispersed in a matrix of the copper alloy, a copper alloy on the bonding surface of the back-metal layer; optionally, 0.1 to 10 volume % of hard particles composed of one or more selected from Al 2 O 3, SiO 2, AIN, Mo 2 C, WC, Fe 2 P, and Fe 3 P, the hard particles being dispersed in a matrix of the copper alloy; and optionally, 0.1 to 10 volume % of a solid lubricant composed of one or more selected from MoS 2, WS 2, graphite, and h-BN, the lubricant being dispersed in a matrix of the copper alloy, wherein the back-metal layer comprises a hypoeutectoid steel including 0.07 to 0.35 mass% of carbon and has a structure comprising a ferrite phase and pearlite, wherein the back-metal layer comprises a high ferrite phase portion at the bonding surface, and wherein a volume ratio Pc and a volume ratio Ps satisfy Ps / Pc ≤ 0.4 where the volume ratio Pc is a volume ratio of pearlite in the structure at a center portion in a thickness direction of the back-metal layer, and the volume ratio Ps is a volume ratio of pearlite in the high ferrite phase portion.
A method for preparing a siliceous material from a rice ball, which comprises the following steps: a) pyrolysis of the rice ball at a temperature θ1 comprised between 600°C and 800°C, under an inert atmosphere, to obtain ash, then b) annealing the ash obtained in step a) at a temperature θ2 comprised between 300°C and 600°C while being lower than θ1, under an oxidising atmosphere, whereby the siliceous material is obtained in the form of a powder. a) pyrolysis of the rice ball at a temperature θ1 comprised between 600°C and 800°C, under an inert atmosphere, to obtain ash, then b) annealing the ash obtained in step a) at a temperature θ2 comprised between 300°C and 600°C while being lower than θ1, under an oxidising atmosphere,
A non-transitory computer readable medium comprising instructions that, when executed by one or more processors of a user equipment, UE, configure the UE to perform operations for dynamically changing an uplink and downlink frame structure configuration, the operations comprising: Transmitting, by an evolved Node B, eNodeB, operating in a time division duplexing, TDD, mode, a System Information Block Type 1, SIB 1, including first uplink and downlink subframe configuration information; and Transmitting, by the eNodeB, in at least one downlink subframe of a radio frame configured in the first uplink and downlink subframe configuration, second uplink and downlink subframe configuration information, the second uplink and downlink subframe configuration information included in a downlink control information, DCI, message and the DCI message being included in the at least one downlink subframe of the radio frame. Transmitting, by an evolved Node B, eNodeB, operating in a time division duplexing, TDD, mode, a System Information Block Type 1, SIB 1, including first uplink and downlink subframe configuration information; and Transmitting, by the eNodeB, in at least one downlink subframe of a radio frame configured in the first uplink and downlink subframe configuration, second uplink and downlink subframe configuration information, the second uplink and downlink subframe configuration information included in a downlink control information, DCI, message and the DCI message being included in the at least one downlink subframe of the radio frame.
A thermoelectric conversion material characterized in that columnar or spherical nanodots having a diameter of 20 nm or less are embedded in an embedding layer at an area density of 5×10 10 /cm 2 or more and an interval between the nanodots of 0.5 nm or more and 30.0 nm or less, and the first material constituting the nanodot is a material containing silicon in an amount of 30 atom% or more, and, either one or both of a difference in energy between the valence band of the first material and the valence band of the second material constituting the embedding layer and a difference in energy between the conduction band of the first material and the conduction band of the second material constituting the embedding layer are in the range of 0.1 eV or more and 0.3 eV or less.
Method for cutting an object comprising fruit, vegetables or the like by use of a hand-held kitchen slicer, wherein the kitchen slicer has a guiding surface on which the object is swayed by another hand and thereby is controllable suppliable to a blade, wherein the guiding surface is arranged shiftily opposite the blade, characterized in that a fluid is supplied to the blade of the kitchen slicer.
An electronic device comprising: a radio communication unit; a storage unit; a camera; a display module; and a controller adapted to acquire a first map image having map content from one of the radio communication unit and the storage unit; characterized in that the controller is further adapted to: obtain an external image including a real map through the camera, wherein the real map is different from the first map acquired from the radio communication unit or the storage unit; extract a second map image corresponding to the real map from the external image received through the camera; synthesize the second map image and the first map image to generate a synthesized map image; and display the synthesized map image through the display module. a radio communication unit; a storage unit; a camera; a display module; and a controller adapted to acquire a first map image having map content from one of the radio communication unit and the storage unit; characterized in that the controller is further adapted to: obtain an external image including a real map through the camera, wherein the real map is different from the first map acquired from the radio communication unit or the storage unit; extract a second map image corresponding to the real map from the external image received through the camera; synthesize the second map image and the first map image to generate a synthesized map image; and display the synthesized map image through the display module. obtain an external image including a real map through the camera, wherein the real map is different from the first map acquired from the radio communication unit or the storage unit; extract a second map image corresponding to the real map from the external image received through the camera; synthesize the second map image and the first map image to generate a synthesized map image; and display the synthesized map image through the display module.
A smoke-generating assembly for an electronic cigarette, the smoke-generating assembly comprising: a solid smoking medium; and a flow perturbation member, embedded in the solid smoking medium; characterised in that the flow perturbation member defines at least one spiral air flow channel, and the at least one spiral air flow channel extends longitudinally. a solid smoking medium; and a flow perturbation member, embedded in the solid smoking medium; characterised in that the flow perturbation member defines at least one spiral air flow channel, and the at least one spiral air flow channel extends longitudinally.
Emergency opening guide wall element, comprising a body and a mounting surface, wherein the mounting surface defines a mounting plane, wherein the emergency opening guide wall element has at least one drive unit, wherein the at least one drive unit is designed such that it can be moved between a rest position and a drive position, wherein the at least one drive unit is arranged in the rest position completely on a side of the mounting plane facing the body, wherein the at least one drive unit, in the drive position for driving the emergency opening guide wall element on the at least one drive unit, penetrates the mounting plane, characterized in that the body is made of concrete, and that the mass of the emergency opening guide wall element is greater than 3 t.
A method to charge a battery cell that is operatively coupled to a power source via a switching circuit, the method comprising: controlling the switching circuit to operate in a first switch position in which the power source is connected to the battery cell to transfer energy from the power source to a plurality of capacitive regions in the battery cell, wherein the connection of the power source to the battery cell results in flow of charging current through the battery cell; maintaining the first switch position for a first duration of time (t1-t3') until a determination is made that the plurality of capacitive regions in the battery cell are fully charged by computing a first derivative and a second derivative of the charging current as a function of time, wherein the plurality of capacitive regions in the battery cell are fully charged when the first derivative and the second derivative of the charging current are zero; in response to determining that the plurality of capacitive regions in the battery cell are fully charged, controlling the switching circuit to operate in a second switch position, in which the power source is disconnected from the battery cell, for a second duration of time (t3'-t6), resulting in transferring of charge stored in the plurality of capacitive regions of the battery cell by migration and/or diffusion of ionic charge within the battery cell; and controlling the switching circuit to alternate between the first switch position and the second switch position to charge the battery cell. controlling the switching circuit to operate in a first switch position in which the power source is connected to the battery cell to transfer energy from the power source to a plurality of capacitive regions in the battery cell, wherein the connection of the power source to the battery cell results in flow of charging current through the battery cell; maintaining the first switch position for a first duration of time (t1-t3') until a determination is made that the plurality of capacitive regions in the battery cell are fully charged by computing a first derivative and a second derivative of the charging current as a function of time, wherein the plurality of capacitive regions in the battery cell are fully charged when the first derivative and the second derivative of the charging current are zero; in response to determining that the plurality of capacitive regions in the battery cell are fully charged, controlling the switching circuit to operate in a second switch position, in which the power source is disconnected from the battery cell, for a second duration of time (t3'-t6), resulting in transferring of charge stored in the plurality of capacitive regions of the battery cell by migration and/or diffusion of ionic charge within the battery cell; and controlling the switching circuit to alternate between the first switch position and the second switch position to charge the battery cell.
Guard rail for an advancing guard rail, comprising at least a first and a second connecting means (2, 3) for respective attachment to a connecting element of a vertical upright and a central spar, the central spar being designed in particular as a hollow tube and having a longitudinal axis, wherein the guard rail comprises a first and a second section (5, 6), wherein the first section comprises the first connecting means and the second section comprises the second connecting means, wherein the connecting means (2, 3) are flat in relation to the central spar, wherein the first and/or second connecting means (2, 3) comprises an opening which has a central section and recesses which are arranged radially starting from the center of the central section, characterized in in that four recesses are provided per opening, the four recesses having longitudinal axes which extend in the direction of the longitudinal extension of the recesses and the longitudinal axes of the four recesses describing a cross in the central section of the opening.
A method for wireless communication for a wireless system, the method comprising: controlling switching of RF components and signals handled by said RF components within an integrated circuit via one or more MEMS switch arrays (205, 225) integrated with a multi-layer package bonded to said integrated circuit via a plurality of solder balls, wherein a thermal epoxy fills a volume between said solder balls, said multi-layer package comprising first metal layers (223A, 223B) and a first MEMS switch array comprising an adjustable length transmission line; and switching in and out segments of the adjustable length transmission line, by MEMS switches of said first MEMS switch array, for tuning a resonance frequency of a RF component, wherein said multi-layer package further comprises a second metal layer and a second MEMS switch array, integrated with the second metal layer, for switching in and out segments of the second metal layer for forming an adjustable antenna. controlling switching of RF components and signals handled by said RF components within an integrated circuit via one or more MEMS switch arrays (205, 225) integrated with a multi-layer package bonded to said integrated circuit via a plurality of solder balls, wherein a thermal epoxy fills a volume between said solder balls, said multi-layer package comprising first metal layers (223A, 223B) and a first MEMS switch array comprising an adjustable length transmission line; and switching in and out segments of the adjustable length transmission line, by MEMS switches of said first MEMS switch array, for tuning a resonance frequency of a RF component, wherein said multi-layer package further comprises a second metal layer and a second MEMS switch array, integrated with the second metal layer, for switching in and out segments of the second metal layer for forming an adjustable antenna.
A concrete screw for hanging a false ceiling frame, said concrete screw having a generally elongated shape along an axis and comprising a first axial section with an outer thread that is configured to be screwed directly into a hole made in a concrete ceiling, and a second axial section for driving the screw that is configured to be engaged with a tool so as to rotate the screw and screw it into the hole, this second section comprising an outer thread configured to receive, by screwing, an element for coupling to a threaded rod for hanging the frame, said screw comprising a transverse recess that is configured to receive one end of a hanger for hanging the frame, said concrete screw being characterized in that said recess runs through said outer thread, said recess being made in said second section.
Delayed valve of the type comprising a water entrance, a water exit, a plunger supporting a shutter and comprising a tubular tail passing through the seat in a sealed manner and comprising, at least, an opening through which water can penetrate when the shutter is moved away from its seat and an exit opening, characterized in that the raising of the shutter is controlled by the pressing down of a pushing button the internal end of which is conformed to obturate the exit opening of the tail, said pushing button being submitted to the action of a counter spring.
An alcoholic beverage composition providing synergistic hepato-protection, the alcoholic beverage comprising: a) a first hepato-protective agent; b) alcohol or an alcohol-water combination; and c) pH adjusting agent(s); and d) a second hepato-protective agent; e) wherein said first hepato-protective agent comprises 18α-Glycyrrhizin in a mass concentration range of 0.1% to 0.3% and said second hepato-protective agent comprises at least one sugar alcohol selected from D-Mannitol and D-Erythritol in a mass concentration range of 0.5% to 3.0%, or a combination thereof; or wherein said first hepato-protective agent comprises 18β-Glycyrrhizin in a mass concentration range of 0.1% to 0.4% and said second hepato-protective agent comprises at least one sugar selected from D-Sucrose, D-Mannose and D-Lactose in a mass concentration range of 1.0% to 2.5% or at least one sugar alcohol selected from D-Mannitol and D-Erythritol in a mass concentration range of 0.5% to 3.0%, or a combination thereof. a) a first hepato-protective agent; b) alcohol or an alcohol-water combination; and c) pH adjusting agent(s); and d) a second hepato-protective agent; e) wherein said first hepato-protective agent comprises 18α-Glycyrrhizin in a mass concentration range of 0.1% to 0.3% and said second hepato-protective agent comprises at least one sugar alcohol selected from D-Mannitol and D-Erythritol in a mass concentration range of 0.5% to 3.0%, or a combination thereof; or wherein said first hepato-protective agent comprises 18β-Glycyrrhizin in a mass concentration range of 0.1% to 0.4% and said second hepato-protective agent comprises at least one sugar selected from D-Sucrose, D-Mannose and D-Lactose in a mass concentration range of 1.0% to 2.5% or at least one sugar alcohol selected from D-Mannitol and D-Erythritol in a mass concentration range of 0.5% to 3.0%, or a combination thereof.
A process for obtaining alginate, alginic acid or an alginate derivative, or a salt thereof, said process comprising the steps of: (i) providing a seaweed portion comprising a stipe; (ii) bleaching the seaweed portion comprising a stipe; and (iii) extracting the alginate, alginic acid or an alginate derivative, or a salt thereof from the seaweed portion comprising a stipe; wherein the bleaching comprises a first neutral or alkaline bleaching step that precedes the extraction step, the first neutral or alkaline bleaching step comprising using a bleaching composition under neutral or alkaline conditions, and wherein the bleaching further comprises a first acid bleaching step that precedes the extraction step, the first acid bleaching step comprising using a bleaching composition under acid conditions. (i) providing a seaweed portion comprising a stipe; (ii) bleaching the seaweed portion comprising a stipe; and (iii) extracting the alginate, alginic acid or an alginate derivative, or a salt thereof from the seaweed portion comprising a stipe; wherein the bleaching comprises a first neutral or alkaline bleaching step that precedes the extraction step, the first neutral or alkaline bleaching step comprising using a bleaching composition under neutral or alkaline conditions, and wherein the bleaching further comprises a first acid bleaching step that precedes the extraction step, the first acid bleaching step comprising using a bleaching composition under acid conditions.
A method of reducing the antigenicity of a molecule, the method comprising conjugating at least one branched polymer to a molecule to form a molecule-polymer conjugate, wherein the molecule comprises a polypeptide, a polynucleotide, a small molecule, or a combination thereof, wherein the branched polymer comprises poly[oligo(ethylene glycol) methyl ether methacrylate] (POEGMA), wherein the POEGMA comprises: a backbone comprising poly(methyl methacrylate); and a plurality of side chains covalently attached to the backbone, where each side chain comprises 2 to 7 monomers of ethylene glycol repeated in tandem; wherein the molecule-polymer conjugate is not reactive with pre-existing anti-PEG antibodies in a subject, and wherein the molecule-polymer conjugate has reduced or eliminated antigenicity compared to a control comprising the molecule conjugated to unbranched PEG. wherein the molecule comprises a polypeptide, a polynucleotide, a small molecule, or a combination thereof, wherein the branched polymer comprises poly[oligo(ethylene glycol) methyl ether methacrylate] (POEGMA), wherein the POEGMA comprises: a backbone comprising poly(methyl methacrylate); and a plurality of side chains covalently attached to the backbone, where each side chain comprises 2 to 7 monomers of ethylene glycol repeated in tandem; wherein the molecule-polymer conjugate is not reactive with pre-existing anti-PEG antibodies in a subject, and wherein the molecule-polymer conjugate has reduced or eliminated antigenicity compared to a control comprising the molecule conjugated to unbranched PEG. a backbone comprising poly(methyl methacrylate); and a plurality of side chains covalently attached to the backbone, where each side chain comprises 2 to 7 monomers of ethylene glycol repeated in tandem; wherein the molecule-polymer conjugate is not reactive with pre-existing anti-PEG antibodies in a subject, and wherein the molecule-polymer conjugate has reduced or eliminated antigenicity compared to a control comprising the molecule conjugated to unbranched PEG.
Magnesium hydroxide which is represented by the following formula: Mg 2 and which has a long diameter of 1 to 10 μm, a thickness of not more than 0.2 μm and an aspect ratio of not less than 20.
An immunogenic polypeptide comprising a) a multimer (i) of an L2 polypeptide comprising an amino acid sequence as shown in SEQ ID NO:1 or a variant thereof, or (ii) of a fragment or fragments of said L2 polypeptide or variants thereof, wherein the amino acid sequence of said variants is at least 65% identical with said L2 polypeptide or fragment of said L2 polypeptide, and wherein said fragments comprise at least 7 consecutive amino acid residues of said L2 polypeptide; and b) a scaffold polypeptide, wherein said scaffold polypeptide constrains the structure of said L2 polypeptides or variants thereof, or of said fragments of said L2 polypeptide or variants thereof, and wherein said scaffold polypeptide is selected from the group consisting of thioredoxin polypeptides and thioredoxin polypeptides derived from thermophile bacteria. a) a multimer (i) of an L2 polypeptide comprising an amino acid sequence as shown in SEQ ID NO:1 or a variant thereof, or (ii) of a fragment or fragments of said L2 polypeptide or variants thereof, wherein the amino acid sequence of said variants is at least 65% identical with said L2 polypeptide or fragment of said L2 polypeptide, and wherein said fragments comprise at least 7 consecutive amino acid residues of said L2 polypeptide; and b) a scaffold polypeptide,