mhurhangee/ep-ind-claims huggingface dataset:
A furniture hinge (20, 200, 300), comprising: an arm member (28, 208, 308); a casing configured to be opened and closed with respect to the arm member (28, 208, 308); an inner link having a first end portion and a second end portion, wherein the first end portion of the inner link is pivotally connected to the arm member (28, 208, 308) via a first shaft, and the second end portion of the inner link is pivotally connected to the casing via a second shaft; an outer link having a first end portion and a second end portion, wherein the first end portion of the outer link is pivotally connected to the arm member (28, 208, 308) via a third shaft, and the second end portion of the outer link is pivotally connected to the casing via a fourth shaft; and a resilient device (46, 204, 304) for providing a resilient force acting between the casing and the arm member (28, 208, 308); characterized in that the resilient device (46, 204, 304) is not in contact with a periphery of any of the first shaft, the second shaft, the third shaft, and the fourth shaft. an arm member (28, 208, 308); a casing configured to be opened and closed with respect to the arm member (28, 208, 308); an inner link having a first end portion and a second end portion, wherein the first end portion of the inner link is pivotally connected to the arm member (28, 208, 308) via a first shaft, and the second end portion of the inner link is pivotally connected to the casing via a second shaft; an outer link having a first end portion and a second end portion, wherein the first end portion of the outer link is pivotally connected to the arm member (28, 208, 308) via a third shaft, and the second end portion of the outer link is pivotally connected to the casing via a fourth shaft; and a resilient device (46, 204, 304) for providing a resilient force acting between the casing and the arm member (28, 208, 308); characterized in that the resilient device (46, 204, 304) is not in contact with a periphery of any of the first shaft, the second shaft, the third shaft, and the fourth shaft.
An article of footwear having an upper and a sole structure engaged with the upper, the sole structure comprising: a connecting portion positioned adjacent the upper and extending along a longitudinal length of the upper; a plurality of sole elements extending downward from the connecting portion, the sole elements each defining a lower surface, and the sole elements being separated by a plurality of sipes that extend upward from the lower surface and into the sole structure the plurality of sipes including a first sipe oriented in a longitudinal direction with respect to the footwear, the first sipe extending through a length of the sole structure, and the first sipe being spaced inward from a lateral side and a medial side of the sole structure, and a plurality of second sipes that extend laterally from the medial side to the lateral side of the sole structure; and an outsole located within the first sipe and the plurality of second sipes secured to and extending between the sole elements, a lower portion of the outsole extending beyond the lower surfaces of the sole elements to form at least a portion of a ground-contacting surface of the sole structure, wherein the lower portions of sipes form wider spaces accommodating segments of the outsole. a connecting portion positioned adjacent the upper and extending along a longitudinal length of the upper; a plurality of sole elements extending downward from the connecting portion, the sole elements each defining a lower surface, and the sole elements being separated by a plurality of sipes that extend upward from the lower surface and into the sole structure the plurality of sipes including a first sipe oriented in a longitudinal direction with respect to the footwear, the first sipe extending through a length of the sole structure, and the first sipe being spaced inward from a lateral side and a medial side of the sole structure, and a plurality of second sipes that extend laterally from the medial side to the lateral side of the sole structure; and an outsole located within the first sipe and the plurality of second sipes secured to and extending between the sole elements, a lower portion of the outsole extending beyond the lower surfaces of the sole elements to form at least a portion of a ground-contacting surface of the sole structure, wherein the lower portions of sipes form wider spaces accommodating segments of the outsole.
A dipole antenna comprising a base printed circuit board and a dipole printed circuit board; first (50a, 50b) and second pairs of dipoles (51a, 51b) positioned in front of the base printed circuit board and on a front face of the dipole printed circuit board, and arranged around a central region; a first feed line which extends from the base printed circuit board towards the dipoles and splits at a first junction positioned in front of the base printed circuit board into a first pair of feed probes (67a, 67b), each of which is coupled to a respective one of the first pair of dipoles; a second feed line which extends from the base printed circuit board towards the dipoles and splits at a second junction positioned in front of the base printed circuit board into a second pair of feed probes, each of which is coupled to a respective one of the second pair of dipoles; and a first feed printed circuit board on which the first feed line and first junction is disposed; and a second feed printed circuit board crossed with the first feed printed circuit board and on which the second feed line and second junction is disposed, the first and second pairs of feed probes being disposed on the respective feed printed circuit boards and coupled with the respective dipoles, the first feed printed circuit board and the second feed printed circuit board extending from the base printed circuit board and supporting the dipole printed circuit board.
A method of machining, with a formed tool, wherein the formed tool is a grinding wheel or a wheel-type milling cutter, a first rotor and a second rotor with mutually complementary meshing threads with variable lead, the method comprising: rotating a first workpiece about a longitudinal axis of the workpiece; making one or more passes of the formed tool along the longitudinal axis of the workpiece as the workpiece rotates so as to remove material, thereby forming the flanks of each helix of the first rotor's thread, the value of at least one of the parameters that collectively define the relative position and relative movement of the workpiece and formed tool being varied during each pass so as to vary the lead of the thread; and repeating the above steps for a second workpiece, thereby forming the second rotor, wherein adjustments are made to at least one of said parameters during one or more of the passes in order to maintain mutually complementary shapes of the threads of the rotors; wherein the adjustments made during each pass are made according to a global adjustment distribution, each global adjustment distribution being determined in advance by: theoretically calculating the clearance distribution that would be produced by counter-rotating a hypothetical pair of meshed first and second rotors of the shape that would be produced by machining them without any adjustments being made, at a plurality of locations along the longitudinal axes of the meshed rotors; deriving a location-specific adjustment set for each of said locations, each location-specific adjustment set comprising one or more parameter adjustments which would cause the clearance distribution at that location to be maintained within a predetermined range of values; and collating the adjustments to each parameter according to the location-specific adjustment sets.
A device for mixing a polymethyl methacrylate bone cement formed of two starting components (1, 2) and for storing the starting components (1, 2) of the bone cement, said device having a tubular cartridge (3, 4, 46, 50) with a cylindrical interior, wherein a powder is contained as first starting component in a front part of the interior of the cartridge (3, 4, 46, 50) and a container containing a monomer liquid as second starting component is arranged in a rear part of the interior of the cartridge (3, 4, 46, 50), wherein a discharge piston is arranged between the container and the powder, and wherein a conveying piston is arranged on the side of the container opposite the discharge piston, wherein the discharge piston and the conveying piston are arranged in the interior of the cartridge (3, 4, 46, 50) movably in the longitudinal direction, wherein a conduit means is provided, which connects the front part and the rear part of the interior of the cartridge (3, 4) to one another in a manner permeable for the monomer liquid and for gases and which is impermeable for the powder, characterized in that by advancing the conveying piston in the direction of the discharge piston, the container is openable, the monomer liquid is pressable into the powder, and the discharge piston is then pushable by the conveying piston in the direction of the front side of the cartridge (3, 4, 46, 50).
A method for monitoring the operation of a corrugated board production plant, comprising the following steps: detecting at least one operational parameter of a functional unit of the plant and calculating a current value of at least a first statistical function of said parameter in a current temporal window; calculating a maximum value and a minimum value of the first statistical function based on historicized data of the operational parameter; comparing the current value of the first statistical function with said maximum value and said minimum value of said first statistical function calculated on said historicized data; based on the result of said comparison, generating a piece of information of predictive diagnostics regarding said functional unit. detecting at least one operational parameter of a functional unit of the plant and calculating a current value of at least a first statistical function of said parameter in a current temporal window; calculating a maximum value and a minimum value of the first statistical function based on historicized data of the operational parameter; comparing the current value of the first statistical function with said maximum value and said minimum value of said first statistical function calculated on said historicized data; based on the result of said comparison, generating a piece of information of predictive diagnostics regarding said functional unit.
Method for the production of a compound used for the manufacture of an article made of rubber or of a pneumatic tyre by means of an apparatus comprising a continuous mixer having a section for mixing the components of the compound being processed, a reaction section located downstream of the mixing section and provided with heating means and a cooling section located downstream of the reaction section and provided with means for the cooling of the compound being processed; wherein said mixing, reaction and cooling sections (MS, RS, CS) are arranged in succession one after another with structural continuity in such a way that the respective inner chambers are physically and seamlessly connected; the method comprising: - a first step of supplying the components of the compound to the continuous mixer; - a step of continuously mixing the components of the compound being processed carried out at a reference temperature (T ref); - a first reaction step, subsequent to the mixing step, performed at a reaction temperature (T react) that is greater than the reference temperature (T ref) in such a way as to activate a mild reaction of the compound being processed; wherein the difference between the reaction temperature (T react) and the reference temperature (T ref) is between 5°C and 45°C; preferably, the difference between the reaction temperature (T react) and the reference temperature (T ref) is between 15°C and 45°C and - a cooling step, subsequent to the reaction step, performed at a cooling temperature (T cool) that is lower than the reaction temperature (T react), in order to prevent further development of the reaction that takes place during the reaction step; wherein the difference between the cooling temperature (T cool) and the reaction temperature (T react) is between 15°C and 45°C; preferably, the difference between the cooling temperature (T cool) and the reaction temperature (T react) is between 20°C and 40°C. - a first step of supplying the components of the compound to the continuous mixer; - a step of continuously mixing the components of the compound being processed carried out at a reference temperature (T ref); - a first reaction step, subsequent to the mixing step, performed at a reaction temperature (T react) that is greater than the reference temperature (T ref) in such a way as to activate a mild reaction of the compound being processed; wherein the difference between the reaction temperature (T react) and the reference temperature (T ref) is between 5°C and 45°C; preferably, the difference between the reaction temperature (T react) and the reference temperature (T ref) is between 15°C and 45°C and - a cooling step, subsequent to the reaction step, performed at a cooling temperature (T cool) that is lower than the reaction temperature (T react), in order to prevent further development of the reaction that takes place during the reaction step; wherein the difference between the cooling temperature (T cool) and the reaction temperature (T react) is between 15°C and 45°C; preferably, the difference between the cooling temperature (T cool) and the reaction temperature (T react) is between 20°C and 40°C.
A kit comprising: an implantable medical device; and a customizable anchorage device configured to anchor the implantable medical device within a patient's body, the anchorage device comprising: a substrate extending along a longitudinal axis between a first end comprising a first bonding area and an opposite second end comprising a second bonding area, the substrate comprising a third bonding area between the first and second bonding areas; wherein the bonding areas each include an adhesive and a nonstick material that covers the adhesive. an implantable medical device; and a customizable anchorage device configured to anchor the implantable medical device within a patient's body, the anchorage device comprising: a substrate extending along a longitudinal axis between a first end comprising a first bonding area and an opposite second end comprising a second bonding area, the substrate comprising a third bonding area between the first and second bonding areas; wherein the bonding areas each include an adhesive and a nonstick material that covers the adhesive.
A transmission module for a mobile terminal, the transmission module comprising a mounting seat and a transmission assembly, the transmission assembly comprises a driving member, a first pushing member and a second pushing member, wherein the first pushing member and the second pushing member are correspondingly coupled to the mounting seat; a cooperation between the driving member and the first pushing member is configured to move the second pushing member and drive the first pushing member to move from a first position to a third position via a second position; between the first position and the second position, the first pushing member is configured to move the second pushing member and the mounting seat; between the second position and the third position, the first pushing member moves relative to the second pushing member and is configured to rotate the mounting seat; wherein the first pushing member comprises a first connecting portion and a second connecting portion coupled to the first connecting portion, and the first connecting portion meshes with the driving member; characterized in that, the first connecting portion comprises a first wedge block, and the second pushing member is provided with a limiting hole; the transmission module comprises a second wedge block, a pin shaft coupled to the second wedge block and a first elastic member coupled to the pin shaft; at the second position, the first wedge block abuts against the second wedge block, and between the second position and the third position, the first wedge block is slidable along the second wedge block and abuts against the second wedge block, so as to drive the second wedge block to compress the first elastic member and clamp the pin shaft to the limiting hole; between the second position and the third position, the second connecting portion is slidable relative to the second pushing member to drive the mounting seat to rotate. wherein the first pushing member comprises a first connecting portion and a second connecting portion coupled to the first connecting portion, and the first connecting portion meshes with the driving member; characterized in that, the first connecting portion comprises a first wedge block, and the second pushing member is provided with a limiting hole; the transmission module comprises a second wedge block, a pin shaft coupled to the second wedge block and a first elastic member coupled to the pin shaft; at the second position, the first wedge block abuts against the second wedge block, and between the second position and the third position, the first wedge block is slidable along the second wedge block and abuts against the second wedge block, so as to drive the second wedge block to compress the first elastic member and clamp the pin shaft to the limiting hole; between the second position and the third position, the second connecting portion is slidable relative to the second pushing member to drive the mounting seat to rotate.
Combined mixed gas system for generating hydrogen and/or methane containing gas, which comprises: a carbonizing device, in particular a gasification reactor, for generating carbonization gases, and a gas cleaning device downstream of the carbonizing device for purifying the carbonization gases, wherein the gas cleaning device is adapted to remove tar constituents (c) from the carbonization gases, and wherein a return line extends between the gas cleaning device and the carbonizing device, by which the tar constituents (c) can be returned from the gas cleaning device into the carbonizing device, characterized in that the cleaning device comprises a gas scrubber with a cleaning medium (a) separating non-gaseous constituents from the carbonization gas stream, and a separating unit disposed separately from the gas scrubber, in which the non-gaseous constituents separated from the carbonization gas stream split into different phases. a carbonizing device, in particular a gasification reactor, for generating carbonization gases, and a gas cleaning device downstream of the carbonizing device for purifying the carbonization gases, wherein the gas cleaning device is adapted to remove tar constituents (c) from the carbonization gases, and wherein a return line extends between the gas cleaning device and the carbonizing device, by which the tar constituents (c) can be returned from the gas cleaning device into the carbonizing device,
A repair device for preparing a welded part on an inner peripheral side of a pipe, comprising: a casing; a slide shaft slidably arranged with respect to the casing; a turn table rotatably arranged with respect to the slide shaft; a cutting mechanism installed on the turn table and including a cutting tool for cutting the welded part; and an advancing and retracting mechanism that is configured to displace a radius of rotation of the cutting tool with respect to rotations of the turn table forward and backward by displacing the cutting mechanism forward and backward, wherein in a state where the casing is positioned with respect to the pipe, the turn table is configured to be rotationally displaced while the slide shaft is configured to slide in an axial direction, and the advancing and retracting mechanism is configured to displace the cutting tool forward and backward, so that the cutting tool helically turns along an inner peripheral shape of the pipe to cut an inner periphery of the pipe, characterized in that the repair device further comprises a buff mechanism including a buff for buffing, wherein the buff mechanism and the cutting mechanism are switchably installed on the turn table. a casing; a slide shaft slidably arranged with respect to the casing; a turn table rotatably arranged with respect to the slide shaft; a cutting mechanism installed on the turn table and including a cutting tool for cutting the welded part; and an advancing and retracting mechanism that is configured to displace a radius of rotation of the cutting tool with respect to rotations of the turn table forward and backward by displacing the cutting mechanism forward and backward, wherein in a state where the casing is positioned with respect to the pipe, the turn table is configured to be rotationally displaced while the slide shaft is configured to slide in an axial direction, and the advancing and retracting mechanism is configured to displace the cutting tool forward and backward, so that the cutting tool helically turns along an inner peripheral shape of the pipe to cut an inner periphery of the pipe, characterized in that the repair device further comprises a buff mechanism including a buff for buffing, wherein the buff mechanism and the cutting mechanism are switchably installed on the turn table.
A method for determining and/or measuring, in particular independently, an imbalance, in particular at least a static imbalance, and/or an eccentric mass moment of a rotor rotating about a rotor axis and having at least two rotor blades, wherein the sweep of the rotor blades of at least one measuring section during rotation of the rotor about the rotor axis is detected by contactless and time-resolved measurement, characterised in that the determination and/or measurement is carried out by determining time intervals between the sweeps of the measuring section of different, in particular successive, rotor blades.
Machine for processing workpieces, in particular, sheet-metal plates, with a punching unit which comprises at least one punching tool (52, 54) movable up and down in the vertical direction and defines a punch processing area, and with an injection molding unit which comprises at least one injection molding tool for injection molding plastic material around areas of the workpiece (20; 180) and defines an injection-mold processing area, and with a positioning device for positioning the workpiece (20; 180) in the punch processing area and in the injection-mold processing area, characterized in that the machine comprises a programmable machine controller for controlling the punching unit, the injection molding unit and the positioning device, and in that the at least one punching tool (52, 54) is rotatable about a vertical axis of rotation (60, 62) for processing the workpiece (20; 180) in rotational positions specifiable by programming, and in that the workpiece (20; 180) is movable back and forth in a horizontal plane in a first feed direction and a second feed direction by means of the positioning device, the workpiece (20; 180) being positionable in horizontal positions specifiable by programming in the punch processing area and in the injection-mold processing area and being repeatedly processable by the punching unit and by the injection molding unit in successive processing steps specifiable by programming.