mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic actuator (140; 240), comprising: - a replaceable gas capsule with a capsule outlet , for supplying a gas under elevated pressure; - a pressure reducer connected with an outlet of the gas capsule, adapted for providing gas under a reduced pressure; - a control valve connected with an outlet of the pressure reducer for receiving the gas under reduced pressure, having a first outlet for selectively supplying the gas to a pneumatic cylinder, and having a second outlet for selectively discharging the gas from the cylinder into the environment; - the pneumatic cylinder with a piston that is movable from a retracted position to an extended position. - a replaceable gas capsule with a capsule outlet , for supplying a gas under elevated pressure; - a pressure reducer connected with an outlet of the gas capsule, adapted for providing gas under a reduced pressure; - a control valve connected with an outlet of the pressure reducer for receiving the gas under reduced pressure, having a first outlet for selectively supplying the gas to a pneumatic cylinder, and having a second outlet for selectively discharging the gas from the cylinder into the environment; - the pneumatic cylinder with a piston that is movable from a retracted position to an extended position.
A vinyl chloride-vinyl acetate copolymer resin composition, comprising 70 to 300 parts by mass of surface-treated calcium carbonate having calcium carbonate surface-treated with a fatty acid or a derivative thereof per 100 parts by mass of a vinyl chloride-vinyl acetate copolymer resin having a vinyl acetate content of 8 to 12% by mass, wherein the surface-treated calcium carbonate has a BET specific surface area, determined according to the method disclosed in the description, of 10 to 40 m 2 /g and an amount for surface treatment ranging from 0.1 × 10 -2 g/m 2 to 0.4 × 10 -2 g/m 2 per m 2 /g of the BET specific surface area, which is calculated from the following formula; Amount for surface treatment per m 2 / g of BET specific surface area × 10 − 2 g / m 2 = A / B A: Weight loss on heating of surface-treated calcium carbonate (%) B: BET specific surface area of surface-treated calcium carbonate (m 2 /g), wherein the weight loss on heating of the surface-treated calcium carbonate is calculated by the following formula from values of weight at 200°C (g) and weight at 500°C (g) which are obtained by weighing the surface-treated calcium carbonate at 200°C and further at 500°C when the surface-treated calcium carbonate is heated at a rate of temperature rise of 10°C/min from room temperature; Weight loss on heating % = weight at 200 ° C g − weight at 500 ° C g / weight at 200 ° C g × 100 . A: Weight loss on heating of surface-treated calcium carbonate (%) B: BET specific surface area of surface-treated calcium carbonate (m 2 /g),
An oil supply device comprising: an electric oil pump in which a rotary volumetric change pump provided with an inner rotor and an outer rotor is operated by a motor , and characterized in further comprising: an electric oil pump controller which controls the motor such that when the electric oil pump is to be shut down, the rotary volumetric change pump is caused to temporarily stop and to rotate by a predetermined angle in a direction opposite to a rotation direction during oil supply, and the electric oil pump is then shut down, so that the negative pressure on an intake side of a pump chamber in the rotary volumetric change pump is reduced or eliminated, thereby preventing air from entering the pump chamber. an electric oil pump in which a rotary volumetric change pump provided with an inner rotor and an outer rotor is operated by a motor , and characterized in further comprising: an electric oil pump controller which controls the motor such that when the electric oil pump is to be shut down, the rotary volumetric change pump is caused to temporarily stop and to rotate by a predetermined angle in a direction opposite to a rotation direction during oil supply, and the electric oil pump is then shut down, so that the negative pressure on an intake side of a pump chamber in the rotary volumetric change pump is reduced or eliminated, thereby preventing air from entering the pump chamber.
An isolated cell comprising: (a) a mammalian tunicamycin (Tn)-resistance gene encoding a protein having at least 93% identity to the amino acid sequence of SEQ ID NO: 3, wherein the Tn-resistance gene is exogenously added to the cell; (b) a first gene of interest (GOI), wherein the first GOI is an exogenously added GOI; and (c) at least one regulatory element, wherein the Tn-resistant gene is operably linked to the first GOI and the at least one regulatory element, wherein the cell is a mammalian cell, and wherein the first GOI encodes an antibody light chain or antigen-binding fragment thereof, an antibody heavy chain or antigen-binding fragment thereof, or an Fc-fusion protein or a fragment thereof. (a) a mammalian tunicamycin (Tn)-resistance gene encoding a protein having at least 93% identity to the amino acid sequence of SEQ ID NO: 3, wherein the Tn-resistance gene is exogenously added to the cell; (b) a first gene of interest (GOI), wherein the first GOI is an exogenously added GOI; and (c) at least one regulatory element,
A trusted kernel starting method, comprising: starting a security boot module boot loader (Step 201); invoking the boot loader to measure, according to a first security algorithm, whether a platform configuration register, PCR, partition is trusted (Step 202); invoking, if the PCR partition is trusted, the boot loader to read kernel code into a memory, and invoking the boot loader to measure, according to a first complete algorithm and a kernel code standard measurement value prestored in the PCR partition, whether the kernel code is trusted (Step 203); initializing, if the kernel code is trusted, the kernel code to trigger an initialized kernel to measure, according to a second complete algorithm, whether the boot loader is trusted (Step 204); and starting the kernel if the boot loader is trusted (Step 205). starting a security boot module boot loader (Step 201); invoking the boot loader to measure, according to a first security algorithm, whether a platform configuration register, PCR, partition is trusted (Step 202); invoking, if the PCR partition is trusted, the boot loader to read kernel code into a memory, and invoking the boot loader to measure, according to a first complete algorithm and a kernel code standard measurement value prestored in the PCR partition, whether the kernel code is trusted (Step 203); initializing, if the kernel code is trusted, the kernel code to trigger an initialized kernel to measure, according to a second complete algorithm, whether the boot loader is trusted (Step 204); and starting the kernel if the boot loader is trusted (Step 205).
Device for securing an element on a submerged pipe as an underwater pipeline for the transport of hydrocarbons, the device comprising: - a compensating member made of an elastic material, extensible when the device is tensioned; - two strands made of a material less elastic than the compensating member , each extending between a first end overmold by the compensating member and a second end , characterized in that it comprises two clamping buckles , each directly integral with one of the second ends of the strands and designed each receive a free end of a strap used to tension the device around the pipe , the compensating member being progressively retractable over time to maintain the device and the strap in tension when the pipe retracts. - a compensating member made of an elastic material, extensible when the device is tensioned; - two strands made of a material less elastic than the compensating member , each extending between a first end overmold by the compensating member and a second end , characterized in that it comprises two clamping buckles , each directly integral with one of the second ends of the strands and designed each receive a free end of a strap used to tension the device around the pipe , the compensating member being progressively retractable over time to maintain the device and the strap in tension when the pipe retracts.
A method for removing deposits in interiors of receptacles and installations with a cleaning device by way of explosion technology, wherein the cleaning device comprises a longitudinal component with at least one feed pressure conduit , and an outlet device which is connected to the at least one feed pressure conduit and which is with at least one outlet body with an outlet opening , with the following steps: - introducing at least one gaseous component into the longitudinal component; - providing a gaseous, explosive mixture from the at least one gaseous component, in the at least one feed pressure conduit and via the at least one feed pressure conduit in the outlet device, wherein the at least one feed pressure conduit and the outlet device form a receiving space for receiving of gaseous, explosive mixture; - controlled ignition of the gaseous, explosive mixture by way of an ignition device , wherein the gaseous, explosive mixture is made to explode, characterised in that the at least one outlet body is designed as a diffuser, and that a part of the gaseous, explosive mixture is introduced via the outlet opening of the at least one outlet body from the receiving space into the interior of the container or installation , and a cloud of gaseous, explosive mixture is formed in the interior , wherein the volume of gaseous, explosive mixture in the receiving space and the volume of the cloud of gaseous, explosive mixture outside the longitudinal component establish the total volume of gaseous, explosive mixture, and the total volume of gaseous, explosive mixture is produced and made to explode in a controlled manner in a time period of 1 second or less. - introducing at least one gaseous component into the longitudinal component; - providing a gaseous, explosive mixture from the at least one gaseous component, in the at least one feed pressure conduit and via the at least one feed pressure conduit in the outlet device, wherein the at least one feed pressure conduit and the outlet device form a receiving space for receiving of gaseous, explosive mixture; - controlled ignition of the gaseous, explosive mixture by way of an ignition device , wherein the gaseous, explosive mixture is made to explode,
A user attachment for an apparatus for gait and balance rehabilitation providing a possibility for a user to receive support during walking in a walking direction , comprising a harness attachable to the body of the user , a horizontally driven attachment arm configured to be attached at a weight supporting device and which can be detachably connected with the harness having a harness attachment element , characterized in that the horizontally driven attachment arm comprises a support arm and a linkage attachment arm , wherein the support arm is configured to be rotatably attached on a first rotation axis at the weight supporting device at one end and provides a second rotation axis at its other end, wherein the linkage arm is rotatably connected at the second rotation axis with the support arm at one end and provides a third rotation axis at its other end, wherein the harness attachment element is rotatably connected at the third rotation axis , and in that the user attachment further comprises a guiding attachment arm configured to be attached at the weight supporting device and which is rotatably connected with the harness attachment element or the linkage attachment arm for a rotative connection of the driven attachment arm with the guiding attachment arm .
An automated luminaire , comprising: a light engine with a central light beam axis and with an LED array light source generating a plurality of colored light beams; a light guide optic which incompletely homogenizes such that the colored beams visibly retain separation and individual color; a zoom lens system configured to receive the colored light beams from the light guide optic and project the received colored light beams in a spreading pattern of beams that respectively opens and closes as lenses of the zoom lens system are moved toward and away from the light guide optic , and further wherein: the zoom lens system is articulated to move along the central light beam axis expanding and contracting the light beams as the zoom lens system is articulated, and the light guide optic is articulated to rotate about the central light beam axis. a light engine with a central light beam axis and with an LED array light source generating a plurality of colored light beams; a light guide optic which incompletely homogenizes such that the colored beams visibly retain separation and individual color; a zoom lens system configured to receive the colored light beams from the light guide optic and project the received colored light beams in a spreading pattern of beams that respectively opens and closes as lenses of the zoom lens system are moved toward and away from the light guide optic , and further wherein: the zoom lens system is articulated to move along the central light beam axis expanding and contracting the light beams as the zoom lens system is articulated, and the light guide optic is articulated to rotate about the central light beam axis. the zoom lens system is articulated to move along the central light beam axis expanding and contracting the light beams as the zoom lens system is articulated, and the light guide optic is articulated to rotate about the central light beam axis.
A battery comprising: an electrode group including a positive electrode and a negative electrode; a container in which the electrode group is housed and an opening is formed, the opening being open on one side in a height direction; a lid configured to cover the opening of the container , and including a gas discharge valve , a liquid inlet penetrating through the lid being formed; a pair of electrode terminals attached to an outer surface of the lid , and electrically connected to the electrode group ; and an electrode group holder provided between the lid and the electrode group inside the container , and stacked together with the lid , an open hole penetrating through the electrode group holder being formed across an area facing the gas discharge valve and an area facing the liquid inlet ; characterized in that the pair of electrode terminals are separated from each other in a lateral direction intersecting the height direction; wherein the open hole is disposed between the pair of electrode terminals in the lateral direction; wherein the electrode group holder includes a protrusion protruding to a side in which the electrode group is positioned, the protrusion being disposed between the pair of electrode terminals in the lateral direction and being formed adjacent to the open hole in the lateral direction. an electrode group including a positive electrode and a negative electrode; a container in which the electrode group is housed and an opening is formed, the opening being open on one side in a height direction; a lid configured to cover the opening of the container , and including a gas discharge valve , a liquid inlet penetrating through the lid being formed; a pair of electrode terminals attached to an outer surface of the lid , and electrically connected to the electrode group ; and an electrode group holder provided between the lid and the electrode group inside the container , and stacked together with the lid , an open hole penetrating through the electrode group holder being formed across an area facing the gas discharge valve and an area facing the liquid inlet ; characterized in that the pair of electrode terminals are separated from each other in a lateral direction intersecting the height direction; wherein the open hole is disposed between the pair of electrode terminals in the lateral direction; wherein the electrode group holder includes a protrusion protruding to a side in which the electrode group is positioned, the protrusion being disposed between the pair of electrode terminals in the lateral direction and being formed adjacent to the open hole in the lateral direction.
A compound comprising Formula (II): wherein: R 1 is alkyl; R 2 is hydrogen, alkyl, acyl, (CH 2 CH 2 O) p H, (CH 2 CH(CH 3 )O) p H, or a combination of (CH 2 CH 2 O) p H and (CH 2 CH(CH 3 )O) p H; p is an integer of 2 or greater; R 3 is C 6 to C 30 alkyl; W and X are oxygen; Y is O or NH; k is an integer of 0 or greater; and n is an integer of 1 or greater. R 1 is alkyl; R 2 is hydrogen, alkyl, acyl, (CH 2 CH 2 O) p H, (CH 2 CH(CH 3 )O) p H, or a combination of (CH 2 CH 2 O) p H and (CH 2 CH(CH 3 )O) p H; p is an integer of 2 or greater; R 3 is C 6 to C 30 alkyl; W and X are oxygen; Y is O or NH; k is an integer of 0 or greater; and n is an integer of 1 or greater.
A porous metal material, comprising a material body; characterized in that the material body is a multilevel porous metal material; the multilevel porous metal material is classified based on pore sizes of the material; the levels are classified into at least more than two levels; in the multilevel porous metal material, a pore size of a smallest level of porous metal material is less than 1 micrometer; an elasticity modulus of the smallest level of porous metal material is less than 80GPa; a porosity is no less than 40%; wherein the material body is formed by respective level of pore cavities classified based on the pore sizes of the material and respective level of cavity walls surrounding to form the pore cavities; the cavity wall, surrounding a three-dimensional space to form upper level of pore cavities, is formed by lower level of porous metal materials; pore cavities of different levels are interconnected with each other, and pore cavities within each level are also interconnected with each other; characterized in that when the number of classified levels of the multilevel porous metal material is three levels, a first level of pore cavities have micrometer level pores, a third level of pore cavities, being the smallest level, have nanometer level pores, a pore size of a second level of pore cavities is between the pore size of the first level of pore cavities and the pore size of the third level of pore cavities. a material body; characterized in that the material body is a multilevel porous metal material; the multilevel porous metal material is classified based on pore sizes of the material; the levels are classified into at least more than two levels; in the multilevel porous metal material, a pore size of a smallest level of porous metal material is less than 1 micrometer; an elasticity modulus of the smallest level of porous metal material is less than 80GPa; a porosity is no less than 40%; wherein the material body is formed by respective level of pore cavities classified based on the pore sizes of the material and respective level of cavity walls surrounding to form the pore cavities; the cavity wall, surrounding a three-dimensional space to form upper level of pore cavities, is formed by lower level of porous metal materials; pore cavities of different levels are interconnected with each other, and pore cavities within each level are also interconnected with each other; characterized in that when the number of classified levels of the multilevel porous metal material is three levels, a first level of pore cavities have micrometer level pores, a third level of pore cavities, being the smallest level, have nanometer level pores, a pore size of a second level of pore cavities is between the pore size of the first level of pore cavities and the pore size of the third level of pore cavities.
An apparatus for machining flat workpieces, comprising a machine frame including a workpiece support and at least one carrier unit positionable relative to the workpiece support , a first and at least a second machining head (22 to 30), each machining head (22 to 30) being connected to the carrier unit and each machining head (22 to 30) comprising a tool carrier that is mounted on the carrier unit rotatably about a first axis (62 to 70) perpendicular to the workpiece support and that carries at least one tool (32 to 50) that is mounted on the tool carrier eccentrically to the first axis (62 to 70) rotatably about a second axis perpendicular to the workpiece support and is connected to a planet wheel (122 to 140) that is gear-engaged with a sun wheel (102 to 110) that is coaxial to the first axis (62 to 70), the tool carrier of the machining heads (22 to 30) being drivable by at least a first drive unit , characterized in that the tool carrier of the first machining head is arranged such that it is movable in a shifting range (V1) along the first axis relative to the carrier unit , and that the tool carrier of the second machining head is arranged such that it is movable in a shifting area (V2) along the first axis relative to the carrier unit . a machine frame including a workpiece support and at least one carrier unit positionable relative to the workpiece support , a first and at least a second machining head (22 to 30), each machining head (22 to 30) being connected to the carrier unit and each machining head (22 to 30) comprising a tool carrier that is mounted on the carrier unit rotatably about a first axis (62 to 70) perpendicular to the workpiece support and that carries at least one tool (32 to 50) that is mounted on the tool carrier eccentrically to the first axis (62 to 70) rotatably about a second axis perpendicular to the workpiece support and is connected to a planet wheel (122 to 140) that is gear-engaged with a sun wheel (102 to 110) that is coaxial to the first axis (62 to 70), the tool carrier of the machining heads (22 to 30) being drivable by at least a first drive unit , characterized in that the tool carrier of the first machining head is arranged such that it is movable in a shifting range (V1) along the first axis relative to the carrier unit , and that the tool carrier of the second machining head is arranged such that it is movable in a shifting area (V2) along the first axis relative to the carrier unit .
A hair colorant composition comprising: (a) a first dye coupler consisting of 3-amino-2,6-dimethylphenol; (b) a second dye coupler being 2,6-dihydroxyethylaminotoluene, its cosmetically acceptable salts, and mixtures thereof; (c) a developer selected from the group consisting of 2-methyl-1,4-benzenediamine, 2-methyl-1,4-benzenediamine sulfate salt, 2-methoxymethyl-1,4 benzenediamine, and mixtures of at least two of these; (d) an oxidizing agent; wherein the hair colorant composition comprises by weight, based on the weight of the hair colorant composition, from 0.001% to 6% of said first dye coupler; from 0.001% to 6% of said second dye coupler; from 0.001% to 6% of said developer; and from 0.1% to 10% of said oxidizing agent. (a) a first dye coupler consisting of 3-amino-2,6-dimethylphenol; (b) a second dye coupler being 2,6-dihydroxyethylaminotoluene, its cosmetically acceptable salts, and mixtures thereof; (c) a developer selected from the group consisting of 2-methyl-1,4-benzenediamine, 2-methyl-1,4-benzenediamine sulfate salt, 2-methoxymethyl-1,4 benzenediamine, and mixtures of at least two of these; (d) an oxidizing agent;