mhurhangee/ep-ind-claims huggingface dataset:
An oxygen-absorbing resin which is a copolyester obtainable by copolymerizing at least the following monomers -: monomer: a derivative of tetrahydrophthalic acid or tetrahydrophthalic anhydride comprising a carbon atom bonded to both of the following structures (a) and (b) and further bonded to one hydrogen atom, the carbon atom being contained in an alicyclic structure: (a) a carbon-carbon double bond group; and (b) either a heteroatom-containing functional group, a bonding group derived therefrom, a carbon-carbon double bond group, or an aromatic ring; monomer: at least one member selected from the group consisting of dicarboxylic acids comprising an aromatic ring and derivatives thereof; and monomer: diol, wherein the amount of monomer unit in the oxygen-absorbing resin is 7.5 to 35 mol% and the amount of monomer unit in the oxygen-absorbing resin is 15 to 42.5 mol%. monomer: a derivative of tetrahydrophthalic acid or tetrahydrophthalic anhydride comprising a carbon atom bonded to both of the following structures (a) and (b) and further bonded to one hydrogen atom, the carbon atom being contained in an alicyclic structure: (a) a carbon-carbon double bond group; and (b) either a heteroatom-containing functional group, a bonding group derived therefrom, a carbon-carbon double bond group, or an aromatic ring; (a) a carbon-carbon double bond group; and (b) either a heteroatom-containing functional group, a bonding group derived therefrom, a carbon-carbon double bond group, or an aromatic ring; monomer: at least one member selected from the group consisting of dicarboxylic acids comprising an aromatic ring and derivatives thereof; and monomer: diol,
Centrifugal force pendulum for absorbing torsional vibrations in a drive train, in particular of a motor vehicle, the centrifugal force pendulum comprising the following elements: - a first flange and a second flange which are connected fixedly to the drive train so as to rotate with it; - a first pendulum mass and a second pendulum mass which are arranged in an axially offset manner between the flanges (105, 110); - the pendulum masses (125, 135) having different absorbing frequencies, the different absorbing frequencies being defined by way of different pendulum paths (145, 150) of the pendulum masses (125, 135), characterized in that a pendulum pin which is attached on the flanges (105, 110) runs in the axial direction through cut-outs (130, 140) of the two pendulum masses (125, 135), and the cut-outs (130, 140) of the pendulum masses (125, 135) are shaped differently in order to define different pendulum paths (145, 150). - a first flange and a second flange which are connected fixedly to the drive train so as to rotate with it; - a first pendulum mass and a second pendulum mass which are arranged in an axially offset manner between the flanges (105, 110); - the pendulum masses (125, 135) having different absorbing frequencies, the different absorbing frequencies being defined by way of different pendulum paths (145, 150) of the pendulum masses (125, 135), characterized in that a pendulum pin which is attached on the flanges (105, 110) runs in the axial direction through cut-outs (130, 140) of the two pendulum masses (125, 135), and the cut-outs (130, 140) of the pendulum masses (125, 135) are shaped differently in order to define different pendulum paths (145, 150).
A positioning method, comprising: Determining, by a first user equipment, a positioning authorization condition for positioning a second user equipment, wherein the positioning authorization condition comprises positioning time information or positioning location information that is jointly determined by the first user equipment and the second user equipment; and Positioning, by the first user equipment, the second user equipment according to the positioning authorization condition, and obtaining location information of the second user equipment. Determining, by a first user equipment, a positioning authorization condition for positioning a second user equipment, wherein the positioning authorization condition comprises positioning time information or positioning location information that is jointly determined by the first user equipment and the second user equipment; and Positioning, by the first user equipment, the second user equipment according to the positioning authorization condition, and obtaining location information of the second user equipment.
A liquid medicine dispensing device that dispenses liquid medicine by discharging one or more kinds of liquid medicine from an original drug vial into a prescription bottle, comprising: a rotary unit that rotates while holding a plurality of original drug vials that are arranged in a predetermined direction to invert the plurality of original drug vials together with rotation thereof; a discharge nozzle connected to each original drug vial; a discharge valve capable of opening and closing that is provided in each discharge nozzle; a conveyance mechanism that conveys a prescription bottle in a space on an underside of the rotary unit; detection means that detects a liquid medicine amount discharged into the prescription bottle; and control means that controls driving of the rotary unit, the discharge valves, and the conveyance mechanism, wherein the control means rotates the rotary unit to invert an original drug vial to be discharged until at least liquid medicine discharge begins and also drives the conveyance mechanism to move the prescription bottle to a position directly below the original drug vial to be discharged, and thereafter opens a discharge valve corresponding to the original drug vial to be discharged until a detection value at the detection means reaches a target value, to thereby cause a liquid medicine to be discharged. a rotary unit that rotates while holding a plurality of original drug vials that are arranged in a predetermined direction to invert the plurality of original drug vials together with rotation thereof; a discharge nozzle connected to each original drug vial; a discharge valve capable of opening and closing that is provided in each discharge nozzle; a conveyance mechanism that conveys a prescription bottle in a space on an underside of the rotary unit; detection means that detects a liquid medicine amount discharged into the prescription bottle; and control means that controls driving of the rotary unit, the discharge valves, and the conveyance mechanism, wherein the control means rotates the rotary unit to invert an original drug vial to be discharged until at least liquid medicine discharge begins and also drives the conveyance mechanism to move the prescription bottle to a position directly below the original drug vial to be discharged, and thereafter opens a discharge valve corresponding to the original drug vial to be discharged until a detection value at the detection means reaches a target value, to thereby cause a liquid medicine to be discharged.
Method for producing a binary sequence implementing a coding of at least one current block (CTB u; CTB' u) of a first image component (CI 11) with respect to a reference block (CTBr i) of at least one second image component (CI 21), said first and second image components being representative of one and the same scene, said reference block having previously been subjected to coding by partitioning, and then to decoding, said partitioning of the reference block being performed a plurality of times until a determined level (k) (k≥0) of partitioning depth is obtained, said method being characterized in that it comprises the steps consisting, as a function of the type of the first and second image components, in: - either partitioning (C33a)) the current block a plurality of times until a level of partitioning depth (k') dependent on the level of partitioning (k) of the reference block is obtained, - or partitioning (C34b)) the current block on the basis of a level of partitioning depth having been previously initialized (C33b)) by a level of partitioning depth (k') which depends on the level of partitioning depth (k) for the reference block, said binary sequence produced being representative of the partitioning obtained. - either partitioning (C33a)) the current block a plurality of times until a level of partitioning depth (k') dependent on the level of partitioning (k) of the reference block is obtained, - or partitioning (C34b)) the current block on the basis of a level of partitioning depth having been previously initialized (C33b)) by a level of partitioning depth (k') which depends on the level of partitioning depth (k) for the reference block,
Separating blade (1, 34, 40) for the material-removing machining of a mineral-containing hard material, comprising a machining section (2; 38, 39; 44-46), situated radially on the outside with respect to a central separating blade axis, for material removal of the hard material, wherein the separating blade (1, 34, 40) is designed to be set in rotation by means of a drivable flange arrangement, and wherein a liquid coolant can be supplied to the separating blade (1, 34, 40) for a machining mode, wherein, in an inner volume of the separating blade (1, 34, 40) that is surrounded by parts of the separating blade (1, 34, 40), an inner structure for providing a flow path, through which the coolant can flow, between an inlet point of the separating blade (1, 34, 40) for supplying the coolant and an outlet point of the separating blade (1, 34, 40) for the discharge of the coolant is formed in such a way that, in the connected state with the flange arrangement, an outflow of portions of the supplied coolant from the inner volume is prevented along the flow path during the machining mode of the separating blade (1, 34, 40), thus ensuring that no coolant reaches the machining section (2; 38, 39; 44-46) on the outside of the separating blade (1, 34, 40), wherein the inlet point is in a hub region of the separating blade (1, 34, 40) and wherein the inner structure defines a flow path for the coolant that can be supplied, according to which, in the machining mode, the coolant flows radially with respect to the separating blade axis from the inside outwards from the inlet point, characterized in that the outlet point is also in the hub region of the separating blade (1, 34, 40), wherein the coolant flows radially with respect to the separating blade axis from the outside inwards to the outlet point.
An isolated antibody or antigen binding fragment thereof that binds to human ANGPTL4, comprising a heavy chain variable domain sequence having the amino acid sequence of SEQ ID NO: 13 and comprising a light chain variable domain having the amino acid sequence of SEQ ID NO: 23.
A method of controlling the onset of signal generation in a bioassay using capsules containing a signal precursor that is hydrolysable from a latent form in which substantially no signal is generated to a form in which it is able to generate a detectable signal, the capsules having on their outer surface affinity molecules for specific recognition of and binding to any target molecules in a sample to be assayed to enable formation of target-capsule complexes, the method comprising: (i) treating the capsules with a solution whose temperature is such that substantially no hydrolysis of the signal precursor takes place and whose pH is balanced such that either: (a) the pH is too high for the signal precursor to undergo significant acid-catalysed hydrolysis at ambient temperature but at which the signal precursor undergoes significant hydrolysis at elevated temperature; or: (b) the pH is too low for the signal precursor to undergo significant base-catalysed hydrolysis at ambient temperature but at which the signal precursor undergoes significant hydrolysis at elevated temperature; and (ii) subsequently heating the capsules in the treatment solution to initiate onset of hydrolysis of the signal precursor to the form in which it is able to generate a detectable signal. (i) treating the capsules with a solution whose temperature is such that substantially no hydrolysis of the signal precursor takes place and whose pH is balanced such that either: (a) the pH is too high for the signal precursor to undergo significant acid-catalysed hydrolysis at ambient temperature but at which the signal precursor undergoes significant hydrolysis at elevated temperature; or: (b) the pH is too low for the signal precursor to undergo significant base-catalysed hydrolysis at ambient temperature but at which the signal precursor undergoes significant hydrolysis at elevated temperature; and (a) the pH is too high for the signal precursor to undergo significant acid-catalysed hydrolysis at ambient temperature but at which the signal precursor undergoes significant hydrolysis at elevated temperature; or: (b) the pH is too low for the signal precursor to undergo significant base-catalysed hydrolysis at ambient temperature but at which the signal precursor undergoes significant hydrolysis at elevated temperature; (ii) subsequently heating the capsules in the treatment solution to initiate onset of hydrolysis of the signal precursor to the form in which it is able to generate a detectable signal.
Method for checking the pre-assembly of a cutting ring on a pipe by way of a device having at least one optical detection installation for detecting image data in a detection region, comprising at least the following method steps: - detecting at least first image data of at least one pipe, having a pre-assembled cutting ring, that is at least in part incorporated in the detection region; - evaluating at least part of the first image data in terms of a position of the cutting ring relative to the pipe, and/or geometric modifications of the pipe and/or geometric modifications of the cutting ring. - detecting at least first image data of at least one pipe, having a pre-assembled cutting ring, that is at least in part incorporated in the detection region; - evaluating at least part of the first image data in terms of a position of the cutting ring relative to the pipe, and/or geometric modifications of the pipe and/or geometric modifications of the cutting ring.
A compound of the formula I where: Ar 1 is phenyl or indanyl and is substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, and haloalkoxy; Ar 2 is phenyl substituted with 1 OH substituent and also substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, and haloalkoxy; X is a bond or C 1 -C 3 alkylene; n is 1 or 2; and ring A is azetidinyl, pyrrolidinyl, piperidinyl, piperazinyl, homopiperidinyl, or homopiperazinyl and is substituted with 0-4 substituents selected from halo, alkyl, hydroxy, or alkoxy; or a pharmaceutically acceptable salt thereof, provided that the following compound is excluded: Ar 1 is phenyl or indanyl and is substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, and haloalkoxy; Ar 2 is phenyl substituted with 1 OH substituent and also substituted with 0-3 substituents selected from cyano, halo, alkyl, haloalkyl, and haloalkoxy; X is a bond or C 1 -C 3 alkylene; n is 1 or 2; and ring A is azetidinyl, pyrrolidinyl, piperidinyl, piperazinyl, homopiperidinyl, or homopiperazinyl and is substituted with 0-4 substituents selected from halo, alkyl, hydroxy, or alkoxy; or a pharmaceutically acceptable salt thereof, provided that the following compound is excluded:
A hydraulic distributor for braking an agricultural or forestry machine comprising: a first slide valve having a first chamber with a signal opening and comprising a first spool, which can axially slide in said first chamber; a first actuator, which is configured to axially vary the position of the first spool of the first slide valve and can be operated by an operator during the braking; a second slide valve, which has a first inlet for a first supply of high-pressure oil and a first supplying outlet for sending, in use, high-pressure oil to a towed vehicle connected to said agricultural or forestry machine, the second slide valve comprising a second, axially sliding spool, which can be operated by means of the first spool of the first slide valve; a third slide valve comprising a third, axially sliding spool and having a second inlet for a second supply of low-pressure oil; a fifth slide valve comprising a fifth, axially sliding spool, a shutter and a coupling configured to be connected, in use, to an auxiliary line of a vehicle towed; wherein said shutter is configured to move said fifth spool from a first position to a second position (H, G) when said coupling is connected, in use, to a towed vehicle; the fifth slide valve having a second supply outlet for sending, in use, low-pressure oil coming from said third slide valve to the towed vehicle; said shutter being configured so as to be arranged in an open position when the third slide valve is connected to the towed vehicle. a first slide valve having a first chamber with a signal opening and comprising a first spool, which can axially slide in said first chamber; a first actuator, which is configured to axially vary the position of the first spool of the first slide valve and can be operated by an operator during the braking; a second slide valve, which has a first inlet for a first supply of high-pressure oil and a first supplying outlet for sending, in use, high-pressure oil to a towed vehicle connected to said agricultural or forestry machine, the second slide valve comprising a second, axially sliding spool, which can be operated by means of the first spool of the first slide valve; a third slide valve comprising a third, axially sliding spool and having a second inlet for a second supply of low-pressure oil; a fifth slide valve comprising a fifth, axially sliding spool, a shutter and a coupling configured to be connected, in use, to an auxiliary line of a vehicle towed; wherein said shutter is configured to move said fifth spool from a first position to a second position (H, G) when said coupling is connected, in use, to a towed vehicle; the fifth slide valve having a second supply outlet for sending, in use, low-pressure oil coming from said third slide valve to the towed vehicle; said shutter being configured so as to be arranged in an open position when the third slide valve is connected to the towed vehicle.
A method for removing carbonyl sulphide from an untreated natural gas stream comprising subjecting the untreated natural gas stream to contact with an absorption liquid so as to provide an absorbed gas-containing liquid, and bringing the absorbed gas-containing liquid in contact with a catalyst suitable for hydrolyzing carbonyl sulphide.
A process for the preparation of 5-phenoxy-1 -isobenzofuranone of Formula I the process comprising: (a) treating an N-substituted-4-nitro-phthalimide of Formula VII where R is substituted or unsubstituted C 1 -C 8 alkyl or substituted or unsubstituted (aryl)C 0 -C 4 alkyl with sodium or potassium phenoxide to form an N-substituted-4-phenoxy-phthalimide of Formula VIII; (b) treating the N-substituted 4-phenoxy-phthalimide of Formula VIII with zinc in the presence of a base to give 5-phenoxy-1 -isobenzofuranone of Formula I, its isomer of 6-phenoxy-1 -isobenzofuranone of Formula Ia, and alkyl amine or aryl amine NH 2 R (Formula IX); (c) isolating the 5-phenoxy-1 -isobenzofuranone ( Formula I) from the 6-phenoxy-1 -isobenzofuranone (Formula Ia). (a) treating an N-substituted-4-nitro-phthalimide of Formula VII where R is substituted or unsubstituted C 1 -C 8 alkyl or substituted or unsubstituted (aryl)C 0 -C 4 alkyl with sodium or potassium phenoxide to form an N-substituted-4-phenoxy-phthalimide of Formula VIII; (b) treating the N-substituted 4-phenoxy-phthalimide of Formula VIII with zinc in the presence of a base to give 5-phenoxy-1 -isobenzofuranone of Formula I, its isomer of 6-phenoxy-1 -isobenzofuranone of Formula Ia, and alkyl amine or aryl amine NH 2 R (Formula IX); (c) isolating the 5-phenoxy-1 -isobenzofuranone ( Formula I) from the 6-phenoxy-1 -isobenzofuranone (Formula Ia).
A catalyst component for the polymerization of olefins comprising a titanium compound, having at least a Ti-halogen bond and at least two electron donor compounds, supported on a Mg halide, one of which belonging to diolesters of the following formula in which R 1 -R 4 groups, equal to or different from each other, are hydrogen or C 1 -C 15 hydrocarbon groups, optionally containing an heteroatom selected from halogen, P, S, N, O and Si, R equal to or different from each other, are selected from C 1 -C 15 hydrocarbon groups which can be optionally linked to form a cycle and n is an integer from 0 to 5, the other electron donor compound being selected from aromatic monoesters of the following formula in which R' groups equal to or different from each other, are selected from C 1 -C 15 hydrocarbon groups which can be also linked to form one or more cycles, m is an integer from 1 to 5 and R 5 is a C 1 -C 15 alkyl group, said electron donors A and B being in amounts such that the A/B molar ratio is lower than 20.
A method of cleaning to remove residue in semiconductor manufacturing processing, comprising contacting a surface to be cleaned with an aqueous formulation comprising: a polymer selected from the group consisting of acrylamido-methyl-propane sulfonate polymers, acrylic acid-2-acrylamido-2-methylpropane sulfonic acid copolymer and mixtures thereof; and a quaternary ammonium hydroxide selected from the group consisting of quaternary alkyl ammonium hydroxide having greater than 4 carbon atoms and, where the formulation does not contain an acetylinic surfactant, choline hydroxide.
A method of calibrating a heliostat, comprising: positioning and orienting an imaging device so that a calibration target (102, 130) reflected by the heliostat is visible at the imaging device, the imaging device having a known position; by means of the imaging device, taking an image of the heliostat that includes the reflected calibration target visible on the heliostat; identifying multiple features of the reflected calibration target in the image; characterized in that the method further comprises: using the multiple features to determine a centroid of reflection within the image; mapping the centroid of reflection within the image to a corresponding centroid position on the calibration target; determining a vector t that extends between the centroid position on the calibration target and a known centre position of the heliostat; determining a vector s that extends between the known position of the imaging device and the known centre position of the heliostat; determining a normal vector n of the heliostat as the vector that bisects the t -vector and the s -vector; and calibrating the heliostat by updating parameters of a tracking model using the determined n -vector. positioning and orienting an imaging device so that a calibration target (102, 130) reflected by the heliostat is visible at the imaging device, the imaging device having a known position; by means of the imaging device, taking an image of the heliostat that includes the reflected calibration target visible on the heliostat; identifying multiple features of the reflected calibration target in the image; characterized in that the method further comprises: using the multiple features to determine a centroid of reflection within the image; mapping the centroid of reflection within the image to a corresponding centroid position on the calibration target; determining a vector t that extends between the centroid position on the calibration target and a known centre position of the heliostat; determining a vector s that extends between the known position of the imaging device and the known centre position of the heliostat; determining a normal vector n of the heliostat as the vector that bisects the t -vector and the s -vector; and calibrating the heliostat by updating parameters of a tracking model using the determined n -vector.