mhurhangee/ep-ind-claims huggingface dataset:
An airfoil array comprising: an endwall; a first airfoil and a second airfoil each extending radially from the endwall and having a first side and an opposite second side extending along an axial chord between a leading edge and a trailing edge; a first profiled region recessed into the endwall along the first side of the first airfoil; a second profiled region protruding from the endwall approximately equidistant from the first side of the first airfoil and the second side of the second airfoil; and a third profiled region recessed into the endwall adjacent the leading edge of the second side of the second airfoil, wherein the third profiled region is at least partially axially aligned with the second profiled region, characterised in that: the first profiled region extends approximately 100% of the axial chord. an endwall; a first airfoil and a second airfoil each extending radially from the endwall and having a first side and an opposite second side extending along an axial chord between a leading edge and a trailing edge; a first profiled region recessed into the endwall along the first side of the first airfoil; a second profiled region protruding from the endwall approximately equidistant from the first side of the first airfoil and the second side of the second airfoil; and a third profiled region recessed into the endwall adjacent the leading edge of the second side of the second airfoil, wherein the third profiled region is at least partially axially aligned with the second profiled region, characterised in that: the first profiled region extends approximately 100% of the axial chord.
Rotor for a turbomachine having a planetary gearset comprising a shaft and a crown wheel which is arranged about the shaft and can be arranged in a rotationally fixed manner, wherein the crown wheel has internal teeth which interact with multiple internal planet gears, a planet disk which is arranged about the shaft and on which the planet gears are rotatably arranged, wherein the shaft has a sun gear which interacts with the planet gears, wherein the planet disk is connected to a rotor disk on which the rotor blades are arranged, wherein rotor blade stages formed of further rotor blades are arranged fixedly on the rotor, characterized in that the planet disk is sealed with respect to the shaft.
An implantable receiver-stimulator device comprising: a transducer assembly (12; 29; 39) which receives acoustic energy from an acoustic source in a manner which is substantially insensitive to the relative orientation of the device to the acoustic source so that the device sensitivity is isotropic and which converts the acoustic energy into electrical signals; demodulator circuitry (13, 14) connected to receive the electrical signals and to convert the electrical signals to a biologically stimulating electrical output; and at least two tissue contacting electrodes which receive the stimulating electrical output and deliver said output to tissue, wherein the transducer assembly comprises a plurality of individual transducer elements (112a...112n; 122a...122n; 132a...132n;141a...141n) and wherein the demodulator circuitry comprises a plurality of individual demodulator circuits, with the electrical signal from each transducer element going to a corresponding demodulator circuit which produces an output, the device further comprising summing circuitry which sums all of the electrical signals from all of the demodulator circuits to produce the biologically stimulating electrical output. a transducer assembly (12; 29; 39) which receives acoustic energy from an acoustic source in a manner which is substantially insensitive to the relative orientation of the device to the acoustic source so that the device sensitivity is isotropic and which converts the acoustic energy into electrical signals; demodulator circuitry (13, 14) connected to receive the electrical signals and to convert the electrical signals to a biologically stimulating electrical output; and at least two tissue contacting electrodes which receive the stimulating electrical output and deliver said output to tissue, wherein the transducer assembly comprises a plurality of individual transducer elements (112a...112n; 122a...122n; 132a...132n;141a...141n) and wherein the demodulator circuitry comprises a plurality of individual demodulator circuits, with the electrical signal from each transducer element going to a corresponding demodulator circuit which produces an output, the device further comprising summing circuitry which sums all of the electrical signals from all of the demodulator circuits to produce the biologically stimulating electrical output.
A solid phase reagent for simultaneously capturing and fluorescently monolabeling an analyte having multiple reactive groups, comprising a solid phase and a plurality of moieties tethered to the solid phase having a pore, wherein each moiety of the plurality of moieties comprises: (a) a single analyte-reactive group for capturing an analyte to provide a captured analyte having a gyration radius, (b) a single fluorophore, and (c) a single cleavable anchor group, wherein the analyte-reactive group is covalently attached to the fluorophore either directly or indirectly, and wherein any two analyte-reactive groups of the plurality of moieties are separated by a distance greater than the gyration radius of the captured analyte; the fluorophore is covalently attached to the cleavable anchor group either directly or through a first spacer; the cleavable anchor group is covalently attached to the solid phase either directly or through a second spacer; the maximum distance between the analyte-reactive group and the analyte, when present, is the maximum dimension of the pore; and wherein the fluorophore is selected from the group consisting of: wherein: R 1, independently at each occurrence, is hydrogen, alkyl C1-12, or hetero(backbone)alkyl C1-12, wherein when substituted, at least one hydrogen atom of the alkyl C1-12, or hetero(backbone)alkyl C1-12 moiety is replaced with a functional group carrying a net zero, net negative, or net positive charge; R 2, independently at each occurrence, is hydrogen, alkyl C1-12, or hetero(backbone)alkyl C1-12, wherein when substituted, at least one hydrogen atom of the alkyl C1-12, or hetero(backbone)alkyl C1-12 moiety is replaced with a functional group carrying a net zero, net negative, or net positive charge; and R 3 is divalent alkyl C1-12 or divalent hetero(backbone)alkyl C1-12. (a) a single analyte-reactive group for capturing an analyte to provide a captured analyte having a gyration radius, (b) a single fluorophore, and (c) a single cleavable anchor group, R 1, independently at each occurrence, is hydrogen, alkyl C1-12, or hetero(backbone)alkyl C1-12, wherein when substituted, at least one hydrogen atom of the alkyl C1-12, or hetero(backbone)alkyl C1-12 moiety is replaced with a functional group carrying a net zero, net negative, or net positive charge; R 2, independently at each occurrence, is hydrogen, alkyl C1-12, or hetero(backbone)alkyl C1-12, wherein when substituted, at least one hydrogen atom of the alkyl C1-12, or hetero(backbone)alkyl C1-12 moiety is replaced with a functional group carrying a net zero, net negative, or net positive charge; and R 3 is divalent alkyl C1-12 or divalent hetero(backbone)alkyl C1-12.
A mattress (100/100'), comprising: a plurality of layers - vertically stacked to one another, the plurality of layers comprising a first layer; a second layer; and a third layer, wherein the first layer is formed of a flex support foam for providing corner to corner support and has only 2 or 4 openings (111-117 / 111'-113') defined therein being operably in fluidic communication with a plurality of fans - for providing air circulation to a user through the mattress (100, 100'), wherein the second layer is disposed between the first layer and the third layer and comprises an array of springs, and wherein the plurality of layers further comprises a fourth layer disposed on the third layer, and a fifth layer disposed on the fourth layer. a plurality of layers - vertically stacked to one another, the plurality of layers comprising a first layer; a second layer; and a third layer, wherein the first layer is formed of a flex support foam for providing corner to corner support and has only 2 or 4 openings (111-117 / 111'-113') defined therein being operably in fluidic communication with a plurality of fans - for providing air circulation to a user through the mattress (100, 100'), wherein the second layer is disposed between the first layer and the third layer and comprises an array of springs, and wherein the plurality of layers further comprises a fourth layer disposed on the third layer, and a fifth layer disposed on the fourth layer.
An energy delivery device comprising: an elongate member defining a lumen for receiving a fluid wherein the elongate member comprises an electrically conductive tubular member having a distal open end, a distal face of the elongate member defining an aperture in communication with the lumen wherein the distal face is beveled, the distal face including at least one electrically exposed conductive portion which partially surrounds the aperture and at least one electrically insulated portion formed of electrically insulating material which extends radially from a wall of the aperture to a periphery of the distal face and blocks a proximal portion of the distal open end of the electrically conductive tubular member, the distal face being thereby configured to avoid creation of emboli upon delivery of energy via the electrically exposed conductive portion. an elongate member defining a lumen for receiving a fluid wherein the elongate member comprises an electrically conductive tubular member having a distal open end, a distal face of the elongate member defining an aperture in communication with the lumen wherein the distal face is beveled, the distal face including at least one electrically exposed conductive portion which partially surrounds the aperture and at least one electrically insulated portion formed of electrically insulating material which extends radially from a wall of the aperture to a periphery of the distal face and blocks a proximal portion of the distal open end of the electrically conductive tubular member, the distal face being thereby configured to avoid creation of emboli upon delivery of energy via the electrically exposed conductive portion.
A power control system method comprising: generating a first output current at an output of a startup circuit responsively to a first value of an output voltage at the output of the startup circuit; characterised by coupling the output to a voltage return to sink the output current and disable the output voltage.
Coupling mechanism for a mechatronic locking system, comprising - an inner coupling part which is rotatably mounted about an axis of rotation, - an outer coupling part which is rotatably mounted relative to the inner coupling part, - a coupling ring which surrounds the coupling parts (1, 3), - a coupling element which is movement-coupled to the coupling ring and to which both coupling parts (1, 3) can be coupled, - a drive which is designed to move the coupling ring from a first position into a second position and from the second position into the first position, and - a housing for receiving the components, - the coupling ring and the coupling element being movable by the drive along an axis perpendicular to the axis of rotation, characterized in that the coupling ring is guided in a circumferential groove on the outer coupling part. - an inner coupling part which is rotatably mounted about an axis of rotation, - an outer coupling part which is rotatably mounted relative to the inner coupling part, - a coupling ring which surrounds the coupling parts (1, 3), - a coupling element which is movement-coupled to the coupling ring and to which both coupling parts (1, 3) can be coupled, - a drive which is designed to move the coupling ring from a first position into a second position and from the second position into the first position, and - a housing for receiving the components, - the coupling ring and the coupling element being movable by the drive along an axis perpendicular to the axis of rotation,
Use of a resin composition comprising a) the reaction product of a1) one or more epoxy compounds having at least 2 epoxy groups, and a2) sorbic acid as component A; b) a solvent containing vinyl groups as component B; for insulation of electrical and electronic components and devices. a) the reaction product of a1) one or more epoxy compounds having at least 2 epoxy groups, and a2) sorbic acid as component A; a1) one or more epoxy compounds having at least 2 epoxy groups, and a2) sorbic acid b) a solvent containing vinyl groups as component B; for insulation of electrical and electronic components and devices.
A particle beam irradiation apparatus (58, 60) that irradiates a charged particle beam accelerated by an accelerator onto an irradiation subject, the particle beam irradiation apparatus (58, 60) comprising: a scanning electromagnet ((1, 2), (1a, 2a, 1b, 2b)) that scans the charged particle beam in an X direction and a Y direction that are perpendicular to a beam axis; and a scanning electromagnet moving apparatus (4, 30a, 30b) that moves the scanning electromagnet ((1, 2), (1a, 2a, 1b, 2b)) in such a way as to change the distance between the scanning electromagnet ((1, 2), (1a, 2a, 1b, 2b)) and the irradiation subject in the beam axis direction of the charged particle beam. a scanning electromagnet ((1, 2), (1a, 2a, 1b, 2b)) that scans the charged particle beam in an X direction and a Y direction that are perpendicular to a beam axis; and a scanning electromagnet moving apparatus (4, 30a, 30b) that moves the scanning electromagnet ((1, 2), (1a, 2a, 1b, 2b)) in such a way as to change the distance between the scanning electromagnet ((1, 2), (1a, 2a, 1b, 2b)) and the irradiation subject in the beam axis direction of the charged particle beam.
A method for analyzing tread surface data to assess one or more parameters of a tread of a tire, comprising: obtaining a tread surface map for a tire, the tread surface map comprising a plurality of data points, each data point providing a tread height for the tread of the tire defined in a measurement direction that is parallel to a radial axis of the tire; processing, with a computing device, the tread surface map using a flattening process to achieve a flattened tread surface map, the flattened tread surface map comprising a plurality of flattened data points, each flattened data point providing a flattened tread height for the tread of the tire defined in a measurement direction generally normal to a surface of the tread of the tire, and analyzing the flattened tread surface map to assess one or more parameters of the tread of the tire, characterized in that the flattening process comprises: identifying a master curve derived from the tread surface map that takes into account a local curvature of the tread of the tire using an iterative linear fit process; and computing the flattened tread height for each flattened data point as the difference between the tread height for a corresponding data point in the tread surface map and a tread height defined by the master curve. obtaining a tread surface map for a tire, the tread surface map comprising a plurality of data points, each data point providing a tread height for the tread of the tire defined in a measurement direction that is parallel to a radial axis of the tire; processing, with a computing device, the tread surface map using a flattening process to achieve a flattened tread surface map, the flattened tread surface map comprising a plurality of flattened data points, each flattened data point providing a flattened tread height for the tread of the tire defined in a measurement direction generally normal to a surface of the tread of the tire, and analyzing the flattened tread surface map to assess one or more parameters of the tread of the tire, identifying a master curve derived from the tread surface map that takes into account a local curvature of the tread of the tire using an iterative linear fit process; and computing the flattened tread height for each flattened data point as the difference between the tread height for a corresponding data point in the tread surface map and a tread height defined by the master curve.
A method of mass spectrometry comprising: generating ions in an ion source; storing ions from the ion source in a first ion storage device, having at least an ion transport aperture, during a first ion storage time; ejecting ions from the first ion storage device to a first mass analysis device during a first ejection time period, for analysis during a first analysis time period; storing ions from the ion source in a second ion storage device, having at least an ion transport aperture, during a second ion storage time; and ejecting ions from the second ion storage device to a second mass analysis device during a second ejection time period, for analysis during a second analysis time period; wherein the ion storage devices (20,40) are connected in series such that the ion transport aperture of the first ion storage device is in communication with the ion transport aperture of the second ion storage device so as to allow transfer of ions between the first and second ion storage devices, and further wherein the first analysis time period and the second ejection time period at least partly overlap. generating ions in an ion source; storing ions from the ion source in a first ion storage device, having at least an ion transport aperture, during a first ion storage time; ejecting ions from the first ion storage device to a first mass analysis device during a first ejection time period, for analysis during a first analysis time period; storing ions from the ion source in a second ion storage device, having at least an ion transport aperture, during a second ion storage time; and ejecting ions from the second ion storage device to a second mass analysis device during a second ejection time period, for analysis during a second analysis time period;
An internal combustion engine defining at least one cylinder, the internal combustion engine comprising: a first camshaft lobe (100a, 100b); a second camshaft lobe; at least one exhaust valve; and a pivotally mounted follower in contact with and operatively engaging the exhaust valve, the first camshaft lobe, and the second camshaft lobe, wherein the follower is operable in a first mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve, and a second mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve and the second camshaft lobe and the valve, wherein the first camshaft lobe is sized and shaped to produce positive engine power by causing the follower to open the exhaust valve during an exhaust stroke, and wherein the second camshaft lobe is sized and shaped to produce negative engine power by causing the follower to open the exhaust valve during a compression stroke. a first camshaft lobe (100a, 100b); a second camshaft lobe; at least one exhaust valve; and a pivotally mounted follower in contact with and operatively engaging the exhaust valve, the first camshaft lobe, and the second camshaft lobe, wherein the follower is operable in a first mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve, and a second mode, in which the follower is configured to transmit motion between the first camshaft lobe and the valve and the second camshaft lobe and the valve, wherein the first camshaft lobe is sized and shaped to produce positive engine power by causing the follower to open the exhaust valve during an exhaust stroke, and wherein the second camshaft lobe is sized and shaped to produce negative engine power by causing the follower to open the exhaust valve during a compression stroke.
A method for performing root cause analysis for an assembly line including a plurality of nodes, the method comprising: receiving tracking data collected by one or more tracking sensors associated with the assembly line, the tracking data identifying a subset of the plurality of nodes processing a product produced by the assembly line characterized by the following steps: receiving approval data associated with the assembly line, the approval data identifying whether each product produced by the assembly line fails an approval metric, enumerating, with an electronic processor, a plurality of paths through the assembly line based on the tracking data, determining, with the electronic processor, a failure rate for each of the plurality of paths based on the approval data, identifying, with the electronic processor, a malfunctioning path included in the plurality of paths based on the failure rate for each of the plurality of paths, identifying, with the electronic processor, a malfunctioning node based on the malfunctioning path, and performing an automatic action to address the malfunctioning node. receiving approval data associated with the assembly line, the approval data identifying whether each product produced by the assembly line fails an approval metric, enumerating, with an electronic processor, a plurality of paths through the assembly line based on the tracking data, determining, with the electronic processor, a failure rate for each of the plurality of paths based on the approval data, identifying, with the electronic processor, a malfunctioning path included in the plurality of paths based on the failure rate for each of the plurality of paths, identifying, with the electronic processor, a malfunctioning node based on the malfunctioning path, and performing an automatic action to address the malfunctioning node.
Method for fully automatically assembling a pressure unit with a fluid container, which pressure unit having a high pressure container with a bottom part and a closure with a pressure control device, which pressure unit is mounted in the fluid container, wherein the bottom part and the closure are mounted automatically to the high-pressure container, the closure and the bottom part are welded into the high-pressure container, and the fluid container and the pressure unit are pre-assembled, clamped by clamping means and rotated by rotating means, and the rotating fluid container is welded to the bottom part of the pressure unit in a welding station having a first laser means, whereas the laser beam of the first laser means being directed to a first joint area of the bottom part and the fluid container to provide a first welding ring, characterized that the fluid container with the mounted pressure unit is clamped at the upper and lower ends by the clamping means and is rotated by the rotating means, whereas the rotating means is associated with the clamping means, and that the rotating fluid container is welded to the bottom part of the pressure unit in the welding station having further a second laser means, whereas the laser beam of the second laser means being directed to a second joint area of the bottom part and the fluid container to provide a second weld ring, which first and second weld rings (53, 56) are separated at a second distance to each other.
A cannula for thread embedding therapy, comprising: a tube having a closed leading end; and a hole formed at a lateral side of the tube for an embedding thread to pass through, characterised in that the cannula further comprises a ball inserted into and fixed inside the tube and disposed to guide the embedding thread through the hole. a tube having a closed leading end; and a hole formed at a lateral side of the tube for an embedding thread to pass through, characterised in that the cannula further comprises a ball inserted into and fixed inside the tube and disposed to guide the embedding thread through the hole.