mhurhangee/ep-ind-claims huggingface dataset:
An elevator car parking brake comprising: a housing having an opening configured to receive at least part of a guide rail; an actuator; braking wedges arranged within the housing at opposite sides of the opening to face side surfaces of the guide rail; characterized in that the elevator car parking brake further comprises: an operating fork configured to move within the housing in a direction perpendicular to an end surface of the guide rail in response to operating the actuator; detaching means attached to each braking wedge; when the actuator is operated to move the operating fork within the housing towards the guide rail to achieve a braking state, the operating fork is configured to push the braking wedges towards the side surfaces of the guide rail to contact the side surfaces; and when the actuator is operated to move the operating fork within the housing away from the guide rail to achieve a brake release state, the detaching means are configured to pull the braking wedges away from the side surfaces of the guide rail. a housing having an opening configured to receive at least part of a guide rail; an actuator; braking wedges arranged within the housing at opposite sides of the opening to face side surfaces of the guide rail; characterized in that the elevator car parking brake further comprises: an operating fork configured to move within the housing in a direction perpendicular to an end surface of the guide rail in response to operating the actuator; detaching means attached to each braking wedge; when the actuator is operated to move the operating fork within the housing towards the guide rail to achieve a braking state, the operating fork is configured to push the braking wedges towards the side surfaces of the guide rail to contact the side surfaces; and when the actuator is operated to move the operating fork within the housing away from the guide rail to achieve a brake release state, the detaching means are configured to pull the braking wedges away from the side surfaces of the guide rail. an operating fork configured to move within the housing in a direction perpendicular to an end surface of the guide rail in response to operating the actuator; detaching means attached to each braking wedge; when the actuator is operated to move the operating fork within the housing towards the guide rail to achieve a braking state, the operating fork is configured to push the braking wedges towards the side surfaces of the guide rail to contact the side surfaces; and when the actuator is operated to move the operating fork within the housing away from the guide rail to achieve a brake release state, the detaching means are configured to pull the braking wedges away from the side surfaces of the guide rail.
A computer-implemented method for controlling welding performed by a welding robot, the method comprises the following: a) obtaining operating data of the welding robot during welding, b) obtaining image data of a welded workpiece, c) processing the image data to determine parameters of the welded workpiece, d) processing the parameters to determine a quality of the welded workpiece by rating the parameters using a scoring function, wherein the scoring function is a generalised weighted scoring function S = ∑ i = 1,..., N a i S 1,..., S N S i wherein S is a result of the scoring function, S i denotes the parameters, a i denotes a respective coefficient for weighting the parameter, and N denotes the number of parameters, N being an integer, and e) inputting the result of the scoring function into a machine learning model; f) applying, using the machine learning model, the result of the scoring function to the obtained operating data to modify said operating data to improve the welding; and g) using said modified operating data to control the welding robot. a) obtaining operating data of the welding robot during welding, b) obtaining image data of a welded workpiece, c) processing the image data to determine parameters of the welded workpiece, d) processing the parameters to determine a quality of the welded workpiece by rating the parameters using a scoring function, wherein the scoring function is a generalised weighted scoring function S = ∑ i = 1,..., N a i S 1,..., S N S i wherein S is a result of the scoring function, S i denotes the parameters, a i denotes a respective coefficient for weighting the parameter, and N denotes the number of parameters, N being an integer, and e) inputting the result of the scoring function into a machine learning model; f) applying, using the machine learning model, the result of the scoring function to the obtained operating data to modify said operating data to improve the welding; and g) using said modified operating data to control the welding robot.
A method of first arrival picking of multi-channel seismic survey data, the method comprising: selecting a temporary first arrival value of each trace in a seismic signal set configured to have a plurality of traces for identifying a geological structure and a characteristic, whereby first arrival locations of the plurality of traces form a hyperbola, and obtaining an image using an amplitude or energy of a seismic signal; deriving a transform set including the temporary first arrival values by performing a normal move-out using a sound source -receiver distance and a velocity of a medium so as to correct a time difference generated during measurement; subtracting a temporary first arrival value of a large deviation from the transform set; deriving a first arrival expected location by generating an average value of remaining temporary first arrival values in the transform set; the method characterized in deriving a true first arrival selection range by adding or subtracting an arbitrary error value to or from the average value of the temporary first arrival values; and selecting a true first arrival value within the true first arrival selection range. selecting a temporary first arrival value of each trace in a seismic signal set configured to have a plurality of traces for identifying a geological structure and a characteristic, whereby first arrival locations of the plurality of traces form a hyperbola, and obtaining an image using an amplitude or energy of a seismic signal; deriving a transform set including the temporary first arrival values by performing a normal move-out using a sound source -receiver distance and a velocity of a medium so as to correct a time difference generated during measurement; subtracting a temporary first arrival value of a large deviation from the transform set; deriving a first arrival expected location by generating an average value of remaining temporary first arrival values in the transform set; the method characterized in deriving a true first arrival selection range by adding or subtracting an arbitrary error value to or from the average value of the temporary first arrival values; and selecting a true first arrival value within the true first arrival selection range.
A separating disk adapted to be included in a disk package of a centrifuge rotor of a centrifugal separator adapted for separation of components in a supplied medium, wherein the separating disk extends around an axis (x) of rotation and has a tapering shape along the axis (x) of rotation with an inner surface and an outer surface, wherein the separating disk is manufactured of at least one material, wherein the separating disk comprises a number of distance members extending at a certain height (h) away from at least one of the inner surface and the outer surface, wherein the tapering shape of the separating disk has been provided through pressing of a blank of the material against a tool having a shape corresponding to the tapering shape of the pressed separating disk, characterized in that the separating disk has a thickness (t), which varies with the distance from the axis (x) of rotation, and that the height (h) of the distance members varies with the distance from the axis (x) of rotation in such a way that this varying height (h) compensates for the varying thickness (t), and that the height (h) of the distance members varies with the distance from the axis (x) of rotation in such a way that each distance member abuts uniformly an outer surface or an inner surface of an adjacent separating disk in the disk package.
Window, door or façade element, in particular a door for a building opening, having a frame and having a sash arranged movably thereon with a handle arrangement with a handle profile with a recessed grip, which has at least one finger scanner and an undercut region, wherein the recessed grip extends from an entry or opening region approximately in an arc into the handle profile and opens in the undercut region behind a front web which forms the undercut region towards the outside, wherein a user can engage in the undercut region with one or more fingers or fingertips, wherein the finger scanner is arranged in the undercut region and wherein a receiving groove is provided on the inside of the front web for receiving the finger scanner, wherein the finger scanner is mounted in the receiving groove by a fastening means, characterized in that the receiving groove is an undercut receiving groove and in that the finger scanner is mounted in the receiving groove in a latching manner.
A blood bag sterile connection method, comprising the following steps: 1) placing blood bag tubes above a wire box of a blood bag sterile connection device, clamping positions to be cut of the blood bag tubes by using two vascular clamps, and simultaneously moving the two vascular clamps in opposite directions; 2) electrifying a composite metal wire of the blood bag sterile connection device for heating, and meanwhile, raising the wire box of the blood bag sterile connection device to cut the blood bag tubes by the composite metal wire of the wire box; 3) after the composite metal wire cuts the blood bag tubes, continuing to raise the wire box of the blood bag sterile connection device and retaining; meanwhile, aligning the blood bag tubes to be connected; 4) electrifying the composite metal wire of the blood bag sterile connection device for heating, meanwhile, moving the wire box of the blood bag sterile connection device downwards, and moving the two vascular clamps towards each other; rolling away the composite metal wire used during cutting under the action of a bobbin of the composite metal wire, and rolling out a new composite metal wire; 5) connecting the blood bag tubes via the composite metal wire, and simultaneously moving the two vascular clamps towards each other; and 6) returning the wire box of the blood bag sterile connection device to the initial position, opening the vascular clamps to take out the connected blood bag tubes, then clicking a reset key to return the vascular clamps to the initial positions, and thus completing the entire cutting and connecting process. 1) placing blood bag tubes above a wire box of a blood bag sterile connection device, clamping positions to be cut of the blood bag tubes by using two vascular clamps, and simultaneously moving the two vascular clamps in opposite directions; 2) electrifying a composite metal wire of the blood bag sterile connection device for heating, and meanwhile, raising the wire box of the blood bag sterile connection device to cut the blood bag tubes by the composite metal wire of the wire box; 3) after the composite metal wire cuts the blood bag tubes, continuing to raise the wire box of the blood bag sterile connection device and retaining; meanwhile, aligning the blood bag tubes to be connected; 4) electrifying the composite metal wire of the blood bag sterile connection device for heating, meanwhile, moving the wire box of the blood bag sterile connection device downwards, and moving the two vascular clamps towards each other; rolling away the composite metal wire used during cutting under the action of a bobbin of the composite metal wire, and rolling out a new composite metal wire; 5) connecting the blood bag tubes via the composite metal wire, and simultaneously moving the two vascular clamps towards each other; and 6) returning the wire box of the blood bag sterile connection device to the initial position, opening the vascular clamps to take out the connected blood bag tubes, then clicking a reset key to return the vascular clamps to the initial positions, and thus completing the entire cutting and connecting process.
A Sophora flavescens extract for use in the treatment or prevention of alcohol hangover, wherein the Sophora flavescens extract is one or more selected from the group consisting of Sophora flavescens crude extracts and Sophora flavescens fractions, wherein the Sophora flavescens crude extracts obtained by extracting Sophora flavescens using one or more extraction solvents selected from the group consisting of straight-chain or branched C1-C4-alcohol, dichloromethane, ethyl acetate and acetone, or a mixture of water and one or more extraction solvents selected from the group consisting of straight-chain or branched C1-C4-alcohol, dichloromethane, ethyl acetate and acetone; and the Sophora flavescens fractions obtained through the solvent fractionation by adding one or more fractionation solvents selected from the group consisting of hexane, chloroform, ether, dichloromethane, ethyl acetate, butanol and water, to the Sophora flavescens crude extract.
Shoe for damping foot movement via the ankle joint, comprising a shoe sole, a shoe upper connected to the shoe sole, and a damping element for damping relative movement, wherein a tensile-stiff band extends from a first end of a lateral side of the shoe over a shoe heel region and over a medial side of the shoe back onto the lateral side at a second end and is movably arranged between the first and the second end (31, 32) on the shoe upper in the direction of its longitudinal extent, wherein the tensile-stiff band is fastened at the first end to the damping element and is fastened at the second end to the shoe upper characterised in that the damping element has a fixed element rigidly attached to the shoe and a relative movement element that is movable relative to the fixed element and connected to the tension-stiff band. wherein a tensile-stiff band extends from a first end of a lateral side of the shoe over a shoe heel region and over a medial side of the shoe back onto the lateral side at a second end and is movably arranged between the first and the second end (31, 32) on the shoe upper in the direction of its longitudinal extent, wherein the tensile-stiff band is fastened at the first end to the damping element and is fastened at the second end to the shoe upper characterised in that the damping element has a fixed element rigidly attached to the shoe and a relative movement element that is movable relative to the fixed element and connected to the tension-stiff band.
A valve assembly, said valve assembly including at least one passage along which fluid can be selectively allowed to pass, said assembly including a valve body (4; 108) in which the passage is formed and at least one ball (12,14; 12a,12b) located in the passage so as to be moveable between a first position in which a channel in the ball forms part of the passage and a second position in which the ball prevents fluid passing along the passage and wherein at at least one end of the body (8;10) and depending inwardly towards one side of the at least one ball there is provided a retention assembly (32;34), said assembly comprising a first annular member to contact with the ball (12,14; 12a,12b), a second annular member receiving and locating at least one biasing means, said first and second annular members located within an annular housing, said annular housing retained within the valve body, and an annular securing member which is engaged with the valve body and which has an outer face which forms or receives an external sealing face for the valve assembly to a pipeline or pipeline flange, characterised in that both_the annular housing and annular securing member are provided with external walls which are threaded to allow threaded engagement with the passage of the valve body such that the annular securing member is retained with the valve body independently from, and out of contact with, the annular securing member.
A method for potting hollow fiber membranes comprising the steps: (i) providing a plurality of hollow fiber membranes, (ii) reacting an isocyanate component containing at least one diisocyanate compound with inorganic particles containing hydroxy groups to form a composition comprising an isocyanate group-containing adduct, wherein the isocyanate groups of the isocyanate component are present in stoichiometric excess relative to the hydroxy groups of the hydroxy group-containing inorganic particles, and wherein at least a portion of the hydroxy groups of the hydroxy group-containing inorganic particles reacts with at least a portion of the isocyanate groups of the isocyanate component into urethane bonds, (iii) mixing the obtained compound containing the isocyanate group-containing adduct with a polyol component containing at least one diol compound into a potting mass, (iv) potting the hollow fiber membranes with the potting mass in at least one potting zone, (v) hardening the potting mass in the potting zone into a polyurethane resin. (i) providing a plurality of hollow fiber membranes, (ii) reacting an isocyanate component containing at least one diisocyanate compound with inorganic particles containing hydroxy groups to form a composition comprising an isocyanate group-containing adduct, wherein the isocyanate groups of the isocyanate component are present in stoichiometric excess relative to the hydroxy groups of the hydroxy group-containing inorganic particles, and wherein at least a portion of the hydroxy groups of the hydroxy group-containing inorganic particles reacts with at least a portion of the isocyanate groups of the isocyanate component into urethane bonds, the isocyanate groups of the isocyanate component are present in stoichiometric excess relative to the hydroxy groups of the hydroxy group-containing inorganic particles, and wherein at least a portion of the hydroxy groups of the hydroxy group-containing inorganic particles reacts with at least a portion of the isocyanate groups of the isocyanate component into urethane bonds, (iii) mixing the obtained compound containing the isocyanate group-containing adduct with a polyol component containing at least one diol compound into a potting mass, (iv) potting the hollow fiber membranes with the potting mass in at least one potting zone, (v) hardening the potting mass in the potting zone into a polyurethane resin.
A clothes treating apparatus having a drying function comprising: a cabinet adapted to receive a rotatable drum therein, the cabinet defining an appearance of the apparatus; a module part mounted onto an outer surface of the cabinet, the module part comprising a heater assembly, a blower assembly, and a housing configured to accommodate the heater assembly and the blower assembly; and a link unit configured to connect the module part onto the rear side of the cabinet, characterized in that the module part is separately placed from the rear surface of the cabinet, and the link unit comprises: a pair of support frames perpendicular disposed between the cabinet and the module part, wherein the pair of support frames couple side surfaces of the cabinet to side surfaces of the module part; and a plurality of guide frames horizontally disposed between the pair of support frames, wherein the plurality of guide frames support the support frames in the connected state. a cabinet adapted to receive a rotatable drum therein, the cabinet defining an appearance of the apparatus; a module part mounted onto an outer surface of the cabinet, the module part comprising a heater assembly, a blower assembly, and a housing configured to accommodate the heater assembly and the blower assembly; and a link unit configured to connect the module part onto the rear side of the cabinet, characterized in that the module part is separately placed from the rear surface of the cabinet, and the link unit comprises: a pair of support frames perpendicular disposed between the cabinet and the module part, wherein the pair of support frames couple side surfaces of the cabinet to side surfaces of the module part; and a plurality of guide frames horizontally disposed between the pair of support frames, wherein the plurality of guide frames support the support frames in the connected state. a pair of support frames perpendicular disposed between the cabinet and the module part, wherein the pair of support frames couple side surfaces of the cabinet to side surfaces of the module part; and a plurality of guide frames horizontally disposed between the pair of support frames, wherein the plurality of guide frames support the support frames in the connected state.
Adhesive bituminous sheath for building, comprising bitumen and an adhesivizing additive mixed with bitumen, characterized in that the said adhesivizing additive is an aliphatic and cycloaliphatic resin, wherein said sheath comprises a weight percentage of aliphatic and cycloaliphatic resin comprised between 1 and 4% of the total weight of the sheath, in such manner that the sheath can be permanently welded to supports having an organic and/or inorganic base.
A lock assembly comprising: a lock for location within a closure and fixable relative to the closure, such that a first end portion of the lock protrudes from an exposed side of the closure, the lock comprising a flange extending outwardly from the body of the lock, and a cover member comprising a back plate and adapted to at least impede access to the protruding, first end portion of the lock, wherein the cover member is fixable relative to the lock, by means of cooperating formations (80, 40) of the cover member and the lock, said cooperating formations (80, 40) comprising the back plate of the cover member and the flange of the lock, and wherein the cover member forms a mount for both the lock and a handle sub-assembly, such that the cover member has a lock portion and a handle portion and, in that the lock portion and the handle portion are separated by a weakened region of the cover member, such that forced removal of the handle portion from the surface of the closure would cause the handle portion to shear from the lock portion and, further comprising at least one shim disposable between the flange of the lock and a surface of the back plate. a lock for location within a closure and fixable relative to the closure, such that a first end portion of the lock protrudes from an exposed side of the closure, the lock comprising a flange extending outwardly from the body of the lock, and a cover member comprising a back plate and adapted to at least impede access to the protruding, first end portion of the lock, wherein the cover member is fixable relative to the lock, by means of cooperating formations (80, 40) of the cover member and the lock, said cooperating formations (80, 40) comprising the back plate of the cover member and the flange of the lock, and wherein the cover member forms a mount for both the lock and a handle sub-assembly, such that the cover member has a lock portion and a handle portion and, in that the lock portion and the handle portion are separated by a weakened region of the cover member, such that forced removal of the handle portion from the surface of the closure would cause the handle portion to shear from the lock portion and, further comprising at least one shim disposable between the flange of the lock and a surface of the back plate.