mhurhangee/patent-ind-claim-en huggingface dataset:
A meandering amount detection method for a metal strip that detects a meandering amount of a metal strip traveling in a state of being overlapped in a plurality of stages at intervals, the meandering amount detection method characterised in that it comprises: a first step of calculating an end portion position in a width direction of a metal strip in each stage using an angle (θ,θ 1 ,θ 2 ,θ 3 ,θ 4 ) formed by a reference direction, which is any direction determined from a reference point, and a direction connecting the reference point and an end portion position in a width direction of a metal strip in each stage, a distance between the reference point and an end portion position in a width direction of a metal strip in each stage, and a distance between a straight line including a width direction of the metal strip and the reference point; and a second step of calculating a meandering amount of a metal strip in each stage based on the end portion position in the width direction calculated in the first step. a first step of calculating an end portion position in a width direction of a metal strip in each stage using an angle (θ,θ 1 ,θ 2 ,θ 3 ,θ 4 ) formed by a reference direction, which is any direction determined from a reference point, and a direction connecting the reference point and an end portion position in a width direction of a metal strip in each stage, a distance between the reference point and an end portion position in a width direction of a metal strip in each stage, and a distance between a straight line including a width direction of the metal strip and the reference point; and a second step of calculating a meandering amount of a metal strip in each stage based on the end portion position in the width direction calculated in the first step.
Material handling vehicle comprising: a chassis , comprising an upper surface on which a first loading surface is arranged, the chassis further comprises a plurality of components coupled thereto, the components being; a power source , a drive motor , at least one drive wheel powered by the drive motor , at least one stabilizing wheel , at least one object sensor for detecting objects in the surroundings of the vehicle , a wireless interface for communication with other units of a system, a control unit , and a navigation device , characterized in that the chassis comprises at least one opening , arranged at a lowermost portion of the chassis , and extending from a first side portion of said chassis , the at least one opening being arranged to receive a material handling element, and comprises an upper abutment surface and sidewalls , extending along the extension of each opening . a chassis , comprising an upper surface on which a first loading surface is arranged, the chassis further comprises a plurality of components coupled thereto, the components being; a power source , a drive motor , at least one drive wheel powered by the drive motor , at least one stabilizing wheel , at least one object sensor for detecting objects in the surroundings of the vehicle , a wireless interface for communication with other units of a system, a control unit , and a navigation device ,
A seal releasing closure assembly comprising: a lid configured for coupling across a container opening of a container , the lid including a lid surface , a lid wall extending from the lid surface , the lid wall includes a lid edge and a slidable coupling surface between the lid edge and the lid surface , and a lid peak aligned with the lid wall ; a retaining and releasing ring configured for coupling with the container and with the lid , the retaining and releasing ring including a ring flange extending over at least a portion of the lid surface , a release ridge , and a ring wall extending from the ring flange to the release ridge and biasing the release ridge inwardly toward the lid wall , characterised in that the retaining and releasing ring includes decoupling and release ready configurations, wherein in the decoupling configuration the release ridge is slidably coupled along the lid wall , and in the release ready configuration the release ridge is seated beneath the lid edge and slidably disengaged from the lid wall , and wherein the release ridge is configured to slide over the lid peak as the retaining and releasing ring transitions from the release ready configuration to the decoupling configuration. a lid configured for coupling across a container opening of a container , the lid including a lid surface , a lid wall extending from the lid surface , the lid wall includes a lid edge and a slidable coupling surface between the lid edge and the lid surface , and a lid peak aligned with the lid wall ; a lid surface , a lid wall extending from the lid surface , the lid wall includes a lid edge and a slidable coupling surface between the lid edge and the lid surface , and a lid peak aligned with the lid wall ; a retaining and releasing ring configured for coupling with the container and with the lid , the retaining and releasing ring including a ring flange extending over at least a portion of the lid surface , a release ridge , and a ring wall extending from the ring flange to the release ridge and biasing the release ridge inwardly toward the lid wall , characterised in that the retaining and releasing ring includes decoupling and release ready configurations, wherein in the decoupling configuration the release ridge is slidably coupled along the lid wall , and in the release ready configuration the release ridge is seated beneath the lid edge and slidably disengaged from the lid wall , and wherein the release ridge is configured to slide over the lid peak as the retaining and releasing ring transitions from the release ready configuration to the decoupling configuration. in the decoupling configuration the release ridge is slidably coupled along the lid wall , and in the release ready configuration the release ridge is seated beneath the lid edge and slidably disengaged from the lid wall , and wherein the release ridge is configured to slide over the lid peak as the retaining and releasing ring transitions from the release ready configuration to the decoupling configuration.
A scoring balloon catheter that comprises: a shaft ; an inflatable balloon mounted on a distal section of the shaft ; a hub or spring associated with the shaft , proximal to the balloon ; and a scoring wire having: a fixed end mounted on the shaft between a shaft distal end and the balloon ; a longitudinally movable end terminating at and directly attached to the hub or spring ; and an intermediate portion running exterior, alongside a working region of the balloon , characterised in that the scoring wire comprises a helical coil section adapted to longitudinally expand in response to inflation of the inflatable balloon , and in that the scoring wire is connected to a vibrating means . a shaft ; an inflatable balloon mounted on a distal section of the shaft ; a hub or spring associated with the shaft , proximal to the balloon ; and a scoring wire having: a fixed end mounted on the shaft between a shaft distal end and the balloon ; a longitudinally movable end terminating at and directly attached to the hub or spring ; and an intermediate portion running exterior, alongside a working region of the balloon , characterised in that the scoring wire comprises a helical coil section adapted to longitudinally expand in response to inflation of the inflatable balloon , and in that the scoring wire is connected to a vibrating means . a fixed end mounted on the shaft between a shaft distal end and the balloon ; a longitudinally movable end terminating at and directly attached to the hub or spring ; and an intermediate portion running exterior, alongside a working region of the balloon , characterised in that the scoring wire comprises a helical coil section adapted to longitudinally expand in response to inflation of the inflatable balloon , and in that the scoring wire is connected to a vibrating means .
Transmission with a first transmission input, which is coupled to an input shaft rotatable about an axis of rotation , with a second transmission input and with a transmission output, with a main gear , which is mounted rotatably about an axis of rotation , has a shaft piece and to which a wheel bearing is assigned, which can be moved perpendicular to the axis of rotation , with a main drive gear , which is used for the rotation of the main gear about the axis of rotation and with which the main gear is in engagement, and with a hub carrier , which is used for moving the wheel bearing and has a circumferential toothing, which cooperates with the second transmission output , wherein the hub carrier for the shaft piece forms the wheel bearing arranged eccentrically to the axis of rotation of the main drive gear , wherein with the introduction of a first torque to the first transmission input the main drive gear rotates the main gear about the axis of rotation , wherein a second torque on the second transmission input drives the hub carrier , wherein the axis of rotation of the main gear is spaced apart from an axis of rotation of the main drive gear about an eccentricity , wherein the main gear has an internal toothing with which the main drive gear meshes, wherein the shaft piece can be connected to a Cardan drive in order to transmit a rotation of the main gear , which is composed of inherent rotation about the axis of rotation and a rotation of the hub carrier about the axis of rotation , to the axis of rotation .
Process for the preparation of a grape seed extract, said process comprising the steps of: 1. providing marc deriving from grape pressing, and subjecting said marc to mechanical sieving, to separate the grape seeds from stalks, skins and other residues resulting from the mechanical pruning of the vines, 2. drying the grape seeds thus separated, down to a residual humidity of less than 8%, 3. infusing the grape seeds in water at a temperature of at least 80°C for at least an hour, at a pH of 3 .0-3.5, 4. separating the aqueous solution obtained in step 3, from the grape seeds, 5. subjecting said aqueous solution to tangential microfiltration through 0.2 micron membranes, then collecting and storing the permeate, 6. subjecting said permeate to tangential ultrafiltration with a cut off of 300 kDalton, then collecting and preserving the retentate, 7. subjecting said retentate to tangential nanofiltration, to eliminate residual water, thus obtaining a grape seed extract, and optionally 8. concentrating and spray drying said extract, thus obtaining a powder. 1. providing marc deriving from grape pressing, and subjecting said marc to mechanical sieving, to separate the grape seeds from stalks, skins and other residues resulting from the mechanical pruning of the vines, 2. drying the grape seeds thus separated, down to a residual humidity of less than 8%, 3. infusing the grape seeds in water at a temperature of at least 80°C for at least an hour, at a pH of 3 .0-3.5, 4. separating the aqueous solution obtained in step 3, from the grape seeds, 5. subjecting said aqueous solution to tangential microfiltration through 0.2 micron membranes, then collecting and storing the permeate, 6. subjecting said permeate to tangential ultrafiltration with a cut off of 300 kDalton, then collecting and preserving the retentate, 7. subjecting said retentate to tangential nanofiltration, to eliminate residual water, thus obtaining a grape seed extract, and optionally 8. concentrating and spray drying said extract, thus obtaining a powder.
A method for optimizing memory card performance, comprising: determining (S21; S41) a plurality of different preset time intervals, the preset time intervals being determined beginning from clock-cycle starting points; sending (S22; S42) test data to a memory card using each of the preset time intervals, respectively; reading (S23; S43) from the memory card the test data corresponding to each of the preset time intervals; comparing (S24; S44) the test data sent using each of the preset time intervals with the corresponding test data that is read; in response to the sent test data and the read test data being consistent, determining (S24; S44) that the preset time interval is valid; determining (S25; S45) at least one group of preset time intervals, each of the at least one group of preset time intervals containing a plurality of valid and successive preset time intervals; determining (S25; S45) a group of preset time intervals containing a maximum number of preset time intervals as a target group; and determining (S26; S46) an average value of all the preset time intervals in the target group as a time interval for writing to the memory card. determining (S21; S41) a plurality of different preset time intervals, the preset time intervals being determined beginning from clock-cycle starting points; sending (S22; S42) test data to a memory card using each of the preset time intervals, respectively; reading (S23; S43) from the memory card the test data corresponding to each of the preset time intervals; comparing (S24; S44) the test data sent using each of the preset time intervals with the corresponding test data that is read; in response to the sent test data and the read test data being consistent, determining (S24; S44) that the preset time interval is valid; determining (S25; S45) at least one group of preset time intervals, each of the at least one group of preset time intervals containing a plurality of valid and successive preset time intervals; determining (S25; S45) a group of preset time intervals containing a maximum number of preset time intervals as a target group; and determining (S26; S46) an average value of all the preset time intervals in the target group as a time interval for writing to the memory card.
A copper foil comprising a copper layer and having a tensile strength of 284.3943 to 637.4355 MPa, a mean width of roughness profile elements (Rsm) of 18 to 148 μm, and a texture coefficient bias [TCB ] of 0.52 or less, wherein the texture coefficient bias [TCB ] is calculated according to the following equation: Texture coefficient bias TCB 220 = TCmax − TCmin wherein TCmax is designated by the highest [TC ] value, and TCmin is designated by the lowest [TC ] value, among [TC ] values which are measured three times at respective points of the left, center and right sides in a width direction of the copper foil .
A label printer for printing labels attached to a mount , comprising: a detection unit configured to detect a peel-off state of a label to be printed; and a printing unit configured to control printing of labels on the mount according to the detected peel-off state of the label to be printed, wherein if the detected peel-off state is total peel-off, the printing unit is configured to advance the mount to a next label on the mount , characterized in that if the detected peel-off state is partial peel-off, the printing unit is configured to not print on the label . a detection unit configured to detect a peel-off state of a label to be printed; and a printing unit configured to control printing of labels on the mount according to the detected peel-off state of the label to be printed, wherein if the detected peel-off state is total peel-off, the printing unit is configured to advance the mount to a next label on the mount , characterized in that if the detected peel-off state is partial peel-off, the printing unit is configured to not print on the label .
A purification device for purifying exhaust gas generated by combustion to heat a greenhouse for plant cultivation, the purification device comprising: an exhaust gas flow path for carrying the exhaust gas along a specified downstream direction , the exhaust gas flow path including a cooling section that directs downward as extending along the downstream direction; a downstream portion for carrying the exhaust gas generated by the combustion into the exhaust gas flow path and for carrying the exhaust gas through the exhaust gas flow path along the downstream direction; a cooler for cooling the exhaust gas flowing through the cooling section; and a purifying solution accumulator that is situated downstream of the cooler along the downstream direction in the exhaust gas flow path, for storing a purifying solution to purify the exhaust gas, and for bringing the exhaust gas flowing through the exhaust gas flow path into contact with the purifying solution, wherein the exhaust gas flow path further includes a flow-in section for carrying condensed water generated by cooling of the exhaust gas by the cooler into the purifying solution accumulated in the purifying solution accumulator . an exhaust gas flow path for carrying the exhaust gas along a specified downstream direction , the exhaust gas flow path including a cooling section that directs downward as extending along the downstream direction; a downstream portion for carrying the exhaust gas generated by the combustion into the exhaust gas flow path and for carrying the exhaust gas through the exhaust gas flow path along the downstream direction; a cooler for cooling the exhaust gas flowing through the cooling section; and a purifying solution accumulator that is situated downstream of the cooler along the downstream direction in the exhaust gas flow path, for storing a purifying solution to purify the exhaust gas, and for bringing the exhaust gas flowing through the exhaust gas flow path into contact with the purifying solution, wherein the exhaust gas flow path further includes a flow-in section for carrying condensed water generated by cooling of the exhaust gas by the cooler into the purifying solution accumulated in the purifying solution accumulator .
An implantable medical product, comprising a basic body having a polymer surface and an imidazole derivative in the form of its free base; wherein said basic body has on its polymeric surface a layer containing the imidazole derivative as an active ingredient, which displays an antithrombogenic, antiproliferative, anti-inflammatory or antiadhesive effect, or a combination thereof, wherein said imidazole derivative is miconazole. wherein said basic body has on its polymeric surface a layer containing the imidazole derivative as an active ingredient, which displays an antithrombogenic, antiproliferative, anti-inflammatory or antiadhesive effect, or a combination thereof, wherein said imidazole derivative is miconazole.
Acoustic panels fastening system for plane surfaces comprising a plurality of acoustic panels and a support structure comprising: a plurality of fastening beams ; a plurality of fastening elements for fastening the fastening beams to the plane surface; characterized by four or more second fastening elements, wherein each of said second fastening elements comprises: a rail attached to the acoustic panel; and a fitting-clip slidably connected to the rail along a first sliding axis; wherein the fitting-clip comprises a clip for slidably fastening to one of said plurality of fastening beams along a second sliding axis; wherein for each acoustic panel, there are four second fastening elements, each positioned in a vertex of each acoustic panel; wherein the fitting-clips of each acoustic panel are arranged to connect the rail to the beam , such that an air gap is created between the acoustic panel and the plane surface. a plurality of fastening beams ; a plurality of fastening elements for fastening the fastening beams to the plane surface; characterized by four or more second fastening elements, wherein each of said second fastening elements comprises: a rail attached to the acoustic panel; and a fitting-clip slidably connected to the rail along a first sliding axis; wherein the fitting-clip comprises a clip for slidably fastening to one of said plurality of fastening beams along a second sliding axis; wherein for each acoustic panel, there are four second fastening elements, each positioned in a vertex of each acoustic panel; wherein the fitting-clips of each acoustic panel are arranged to connect the rail to the beam , such that an air gap is created between the acoustic panel and the plane surface. a rail attached to the acoustic panel; and a fitting-clip slidably connected to the rail along a first sliding axis; wherein the fitting-clip comprises a clip for slidably fastening to one of said plurality of fastening beams along a second sliding axis; wherein for each acoustic panel, there are four second fastening elements, each positioned in a vertex of each acoustic panel; wherein the fitting-clips of each acoustic panel are arranged to connect the rail to the beam , such that an air gap is created between the acoustic panel and the plane surface.
A compound represented by formula (I) or a pharmaceutically acceptable salt thereof, wherein, R 1 and R 2 are each independently selected from H and pyrazolyl, and R 1 and R 2 are not both pyrazolyl or H; R 3 and R 4 are each independently selected from H, F, Cl, Br, I, OH, NH 2 , CN, C 1-3 alkyl and C 1-3 alkoxy, wherein C 1-3 alkyl and C 1-3 alkoxy are optionally substituted with 1, 2 or 3 halogens; T 1 is selected from CH and N; D 1 is selected from -O-, -C(R 5 )(R 6 )-, -N(R 7 )- and R 5 and R 6 are each independently selected from H, F, Cl, Br, I, OH and C 1-3 alkyl, wherein C 1-3 alkyl is optionally substituted with 1, 2 or 3 halogens; alternatively, R 5 and R 6 together with a carbon atom to which they are both connected form an oxetanyl group; R 7 is selected from H, and C 1-3 alkyl, wherein C 1-3 alkyl is optionally substituted with 1, 2 or 3 halogens; R 8 is selected from H and -C(=O)-C 1-3 alkyl; and n is selected from 1 and 2. R 1 and R 2 are each independently selected from H and pyrazolyl, and R 1 and R 2 are not both pyrazolyl or H; R 3 and R 4 are each independently selected from H, F, Cl, Br, I, OH, NH 2 , CN, C 1-3 alkyl and C 1-3 alkoxy, wherein C 1-3 alkyl and C 1-3 alkoxy are optionally substituted with 1, 2 or 3 halogens; T 1 is selected from CH and N; D 1 is selected from -O-, -C(R 5 )(R 6 )-, -N(R 7 )- and R 5 and R 6 are each independently selected from H, F, Cl, Br, I, OH and C 1-3 alkyl, wherein C 1-3 alkyl is optionally substituted with 1, 2 or 3 halogens; alternatively, R 5 and R 6 together with a carbon atom to which they are both connected form an oxetanyl group; R 7 is selected from H, and C 1-3 alkyl, wherein C 1-3 alkyl is optionally substituted with 1, 2 or 3 halogens; R 8 is selected from H and -C(=O)-C 1-3 alkyl; and n is selected from 1 and 2.