mhurhangee/ep-ind-claims huggingface dataset:
A hub device for a bicycle for supporting a rotary motion of a wheel, comprising: a hub case which is attached to a center portion of the wheel for receiving a load exerted from a rim to which a tire is fitted via a spoke, and the hub case having each inner diameter of end portions larger than a diameter of the center portion; a sleeve formed of a cylindrical member and integrally attached to the hub case at a side of the inner diameter of the hub case, which serves to transfer the load exerted on the hub case to a shaft; a bearing for receiving the load exerted on the sleeve and rotatably supporting a whole structure of the wheel which includes the sleeve and the hub case; and a shaft for rotatably supporting the whole structure of the wheel via the bearing, characterized in that a plurality of predetermined slits are formed around both end portions of the cylindrical member in an axial direction. a hub case which is attached to a center portion of the wheel for receiving a load exerted from a rim to which a tire is fitted via a spoke, and the hub case having each inner diameter of end portions larger than a diameter of the center portion; a sleeve formed of a cylindrical member and integrally attached to the hub case at a side of the inner diameter of the hub case, which serves to transfer the load exerted on the hub case to a shaft; a bearing for receiving the load exerted on the sleeve and rotatably supporting a whole structure of the wheel which includes the sleeve and the hub case; and a shaft for rotatably supporting the whole structure of the wheel via the bearing, characterized in that a plurality of predetermined slits are formed around both end portions of the cylindrical member in an axial direction.
A rotor mast for a rotorcraft, in particular a helicopter, which has an external mast which can be coupled with a drive unit of a helicopter rotor transmission in a rotationally fixed manner, wherein the rotor mast is configured to be in two parts and comprises a bearing mast and an external mast, wherein the outer mast configured as a hollow body is swivel-mounted around a centric axis relative to the bearing mast, thereby concentrically surrounding the bearing mast, and wherein the external mast is capable of being operatively connected to the helicopter transmission, while the bearing mast can be mounted in a locationally and rotationally fixed manner in the rotorcraft in such a way that the external mast can be coupled with a main rotor in a rotationally fixed manner and can be rotated with the helicopter rotor transmission, wherein the bearing mast is configured and provided with suitable fixing means such that the bearing mast can be arranged in a locationally and rotationally fixed manner in a central cavity of the helicopter rotor transmission, and the bearing mast can be held, at least partially passing through a transmission housing of the helicopter rotor transmission in the direction of the central axis, characterised in that the bearing mast is tapered from the rotor side in the direction of the side facing away from the outer mast, and is provided with suitable fixing means such that the bearing mast can be inserted from the rotor side into the central cavity of the transmission housing and can be fixed in the latter. wherein the rotor mast is configured to be in two parts and comprises a bearing mast and an external mast, wherein the outer mast configured as a hollow body is swivel-mounted around a centric axis relative to the bearing mast, thereby concentrically surrounding the bearing mast, and wherein the external mast is capable of being operatively connected to the helicopter transmission, while the bearing mast can be mounted in a locationally and rotationally fixed manner in the rotorcraft in such a way that the external mast can be coupled with a main rotor in a rotationally fixed manner and can be rotated with the helicopter rotor transmission, wherein the bearing mast is configured and provided with suitable fixing means such that the bearing mast can be arranged in a locationally and rotationally fixed manner in a central cavity of the helicopter rotor transmission, and the bearing mast can be held, at least partially passing through a transmission housing of the helicopter rotor transmission in the direction of the central axis, characterised in that the bearing mast is tapered from the rotor side in the direction of the side facing away from the outer mast, and is provided with suitable fixing means such that the bearing mast can be inserted from the rotor side into the central cavity of the transmission housing and can be fixed in the latter.
High-temperature sensor for measuring the temperature of gaseous media, in particular for measuring the exhaust gas temperature of motor vehicles, comprising a resistance sensor and a protective tube, there being arranged in the front area of the protective tube that projects into the medium a high-temperature component, which is connected to the protective tube in a gas-tight manner by way of an adapter, there being located in the high-temperature component a high-temperature chip, the chip connection wires (2.2) of which are connected in the front area, on the side facing the process medium, to connection leads, the chip connection wires 2.2 being wound around by protecting and retaining wires 2.3 and the connecting points being located in front of the high-temperature chip in the direction of the medium, and the connection leads being led in parallel alongside the high-temperature chip to a sheathed lead fastened in the protective tube, and the high-temperature chip being enclosed by a ceramic part.
A drug delivery device comprising a drug reservoir chamber containing a substance to be delivered in fluid connection with a drug administration means (17,18), a hydraulic control chamber containing an electrically controlled volume changing means, a coupling means (14,23,60,77) coupling said hydraulic control chamber to said drug chamber, and an electrical control means, the arrangement being such that electrical control of the volume changing means by said electrical control means causes a change in the volume of the volume changing means, said volume change being conveyed by said coupling means (14,23,60,77) to said drug chamber such that said substance is expelled from said drug chamber towards said drug administration means (17,18), wherein said volume changing means is a non-gassing volume changing means, characterized in that said volume changing means is a battery cell comprising electrodes and an electrolyte, wherein said electrical control means includes an electric circuit connected to said volume changing means via electrical contacts connected to said electrodes, the battery cell being configured such that the combined volume of said electrodes and electrolyte changes upon the discharge thereof.
A hinge assembly for a floating and folding frame of an implement, for pivotally connecting a first frame section and a second frame section of the frame, each of the first and second frame sections (140, 160) having a first mounting structure (212, 231) and a second mounting structure (214, 237), the hinge assembly comprising: at least one pivot plate pivotally connected to the first mounting structure of the first frame section with a first pin and pivotally connected to the first mounting structure of the second frame section with a second pin, the at least one pivot plate defining a slot configured to be coupled to an actuator with a floating pin; and a linkage bar with a first end pivotally connected to the second mounting structure of the first frame section with a third pin and a second end pivotally connected to the second mounting structure of the second frame section with a fourth pin, wherein the at least one pivot plate and the linkage bar are configured such that the second frame section pivots about the fourth pin during a working state and about the third pin during a transition between the working state and a folding state. at least one pivot plate pivotally connected to the first mounting structure of the first frame section with a first pin and pivotally connected to the first mounting structure of the second frame section with a second pin, the at least one pivot plate defining a slot configured to be coupled to an actuator with a floating pin; and a linkage bar with a first end pivotally connected to the second mounting structure of the first frame section with a third pin and a second end pivotally connected to the second mounting structure of the second frame section with a fourth pin, wherein the at least one pivot plate and the linkage bar are configured such that the second frame section pivots about the fourth pin during a working state and about the third pin during a transition between the working state and a folding state.
Configuration for controlling flow instabilities of a last stage of a steam turbine where rotor blades rotate encircled by a vane carrier, wherein a plurality of passages are located in the vane carrier, such that a fluid is blown through these passages upstream of the rotor blades and arranged to form a flow that impinges onto the rotor blades, characterized in that this flow impinges onto the rotor blades with a negative injection angle between zero and -90 degrees in a direction counter to the rotation of the rotor blades, with zero degrees being axial, characterised by the passages configured and arranged to blow fluid towards a point that is 80% of a height of the last stage rotor blade taken from a base to a tip of the rotor blade.
A catalytic wall-flow monolith for use in an emission treatment system, the monolith comprising a porous substrate and having a first face and a second face defining a longitudinal direction therebetween and first and second pluralities of channels extending in the longitudinal direction, wherein the first plurality of channels provides a first plurality of inner surfaces and is open at the first face and closed at the second face, and wherein the second plurality of channels is open at the second face and closed at the first face, wherein a first catalytic material is distributed within the porous substrate, wherein a microporous membrane is provided in the first plurality of channels on a first portion, extending in the longitudinal direction, of the first plurality of inner surfaces, and wherein the first portion extends from the first face for 75 to 95% of a length of the first plurality of channels such that a rear zone of the channels does not have a microporous coating so that soot can be deposited in the pores of the walls, wherein the length is the internal length of a cavity from the first face to the internal sealed end of the first plurality of channels and wherein the mean pore diameter of the membrane is from 0.1 μm to 5 μm.
A fiber-containing resin substrate for collectively sealing at least a surface of a substrate having a plurality of semiconductor devices mounted thereon or a surface of a wafer having semiconductor devices formed thereon, wherein the substrate or the wafer has a diameter of 300 mm or above, comprising: a resin-impregnated fiber base material impregnated with a semi-cured thermosetting resin; and an uncured resin layer containing an uncured thermosetting resin of the same type on one side of the resin-impregnated fiber base material, wherein a thickness of the uncured resin layer is not smaller than 20 microns and not greater than 200 microns. a resin-impregnated fiber base material impregnated with a semi-cured thermosetting resin; and an uncured resin layer containing an uncured thermosetting resin of the same type on one side of the resin-impregnated fiber base material, wherein a thickness of the uncured resin layer is not smaller than 20 microns and not greater than 200 microns.
An electrical switch (100; 300) comprising: • a base (110; 310); • a driver (130; 330) that is mounted in the base (110; 310) to rock between two stable positions so as to make or break the contact between a movable contact element and a stationary contact element; and • a compressible element (160; 360) that is compressible along a compression axis, the compressible element being adapted to be inactive relative to the driver (130; 330) so as to leave the driver (130; 330) free to take up one or the other of the two stable positions, and to be received between a bearing surface (152; 352) and the driver (130; 330) and be stressed against the driver (130; 330) so as to force the driver (130; 330) to take up only one of the two stable position; the electrical switch being characterized in that the bearing surface (152; 352) is formed on a movable part (150; 350) that is movable along said compression axis, relative to the base (110; 310) between a spaced-apart position that is spaced apart from the driver (130; 330), in which the compressible element (160; 360) is inactive relative to the driver (130; 330), and a bearing position, in which the compressible element (160; 360) is stressed between the bearing surface (152; 352) and the driver (130; 330). • a base (110; 310); • a driver (130; 330) that is mounted in the base (110; 310) to rock between two stable positions so as to make or break the contact between a movable contact element and a stationary contact element; and • a compressible element (160; 360) that is compressible along a compression axis, the compressible element being adapted to be inactive relative to the driver (130; 330) so as to leave the driver (130; 330) free to take up one or the other of the two stable positions, and to be received between a bearing surface (152; 352) and the driver (130; 330) and be stressed against the driver (130; 330) so as to force the driver (130; 330) to take up only one of the two stable position;
An orthodontic space closure device (10, 10', 10"), comprising: a first tooth cap unit configured to be removably worn on anterior teeth of a dental arch of a patient, wherein at least one first connector is fixed on each of the left and right buccal side of the first tooth cap unit; a second tooth cap unit configured to be removably worn on posterior teeth of the dental arch, wherein the second tooth cap unit includes two second tooth cap segments configured to be removably worn on the posterior teeth each on the left and right side of the dental arch, and each of the second tooth cap segments has a vertical extension part formed on its buccal side, and extending vertically in a direction away from the occlusal surface, and at least one second connector is fixed on each vertical extension part; and a plurality of elastic members coupling the first connectors on the buccal sides of the first tooth cap unit to the second connectors on the buccal sides of the second tooth cap unit, thereby exerting elastic traction forces having horizontal and vertical components on the first tooth cap unit to achieve retraction and intrusion of the anterior teeth. a first tooth cap unit configured to be removably worn on anterior teeth of a dental arch of a patient, wherein at least one first connector is fixed on each of the left and right buccal side of the first tooth cap unit; a second tooth cap unit configured to be removably worn on posterior teeth of the dental arch, wherein the second tooth cap unit includes two second tooth cap segments configured to be removably worn on the posterior teeth each on the left and right side of the dental arch, and each of the second tooth cap segments has a vertical extension part formed on its buccal side, and extending vertically in a direction away from the occlusal surface, and at least one second connector is fixed on each vertical extension part; and a plurality of elastic members coupling the first connectors on the buccal sides of the first tooth cap unit to the second connectors on the buccal sides of the second tooth cap unit, thereby exerting elastic traction forces having horizontal and vertical components on the first tooth cap unit to achieve retraction and intrusion of the anterior teeth.
A multi-port valve having a valve housing in which a valve chamber is formed and into which at least three connection channels (16,17,18) lead, wherein a first valve is arranged between the first and the third connection channel (16,18) and a second valve is arranged between the second and the third connection channel (17,18), and wherein an electrically actuated actuator comprising a at least two operating positions is arranged in the valve housing, wherein the actuator acts on the first valve in the first operating position and on the second valve in the second operating position, characterized in that the first valve is associated with a first resetting device that prestresses the first valve to its rest position by spring tension, and that the second valve is associated with a second resetting device that prestresses the second valve to its rest position by spring tension.
A fast disintegrating dosage form comprising functionalized natural and/or synthetic calcium carbonate, at least one active ingredient and at least one disintegrant, wherein said functionalized natural or synthetic calcium carbonate is a reaction product of natural or synthetic calcium carbonate with carbon dioxide and one or more acids, wherein the carbon dioxide is formed in situ by the acid treatment and/or is supplied from an external source, wherein the at least one disintegrant is selected from the group comprising modified cellulose gums, insoluble cross-linked polyvinylpyrrolidones, starch glycolates or mixtures thereof, wherein the tablet disintegrates in less than or in 3 minutes, preferably in less than or in 2 minutes, more preferably in less than or in 1 minute, still more preferably in less than or in 30 seconds, when introduced into an aqueous environment, and wherein the functionalized natural or synthetic calcium carbonate has a BET specific surface area of from 15 m 2 /g to 200 m 2 /g, measured using nitrogen and the BET method according to ISO 9277:2010.
A stable recombinant cell line comprising recombinant cardiomyocytes stably expressing hERG, wherein the cell line is designated hMYO-hERG (ATCC Designation No. PTA-123324).
An apparatus comprising: processing circuitry to perform data processing; a plurality of vector registers to store vector values comprising a plurality of data elements; a plurality of scalar registers to store scalar values; and an instruction decoder to decode instructions to control the processing circuitry to process the instructions as defined by an instruction set architecture, wherein the instruction decoder is configured to decode a vector multiply-add instruction specifying a plurality of registers including at least one vector register and at least one scalar register, to control the processing circuitry to perform a vector multiply-add operation comprising a plurality of lanes of processing on a first vector value stored in a first vector register specified by the vector multiply-add instruction to generate a result vector value comprising a plurality of result data elements; each lane of processing comprising generating a respective result data element of the result vector value corresponding to a sum or difference of a product value and an addend value, the product value corresponding to a product of a respective data element of the first vector value and a multiplier value; wherein for each lane of processing, at least one of the multiplier value and the addend value comprises at least a portion of a scalar value stored in a scalar register specified by the vector multiply-add instruction. processing circuitry to perform data processing; a plurality of vector registers to store vector values comprising a plurality of data elements; a plurality of scalar registers to store scalar values; and an instruction decoder to decode instructions to control the processing circuitry to process the instructions as defined by an instruction set architecture, wherein the instruction decoder is configured to decode a vector multiply-add instruction specifying a plurality of registers including at least one vector register and at least one scalar register, to control the processing circuitry to perform a vector multiply-add operation comprising a plurality of lanes of processing on a first vector value stored in a first vector register specified by the vector multiply-add instruction to generate a result vector value comprising a plurality of result data elements; each lane of processing comprising generating a respective result data element of the result vector value corresponding to a sum or difference of a product value and an addend value, the product value corresponding to a product of a respective data element of the first vector value and a multiplier value; wherein for each lane of processing, at least one of the multiplier value and the addend value comprises at least a portion of a scalar value stored in a scalar register specified by the vector multiply-add instruction.
Battery, comprising: a battery cell comprising a pressure relief mechanism configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; and a fire-fighting pipeline configured to accommodate a fire-fighting medium and discharge the fire-fighting medium when the pressure relief mechanism is actuated; wherein the fire-fighting pipeline is covered with an isolation layer, and the isolation layer is configured to block the contact of gases and the fire-fighting pipeline so as not to generate condensate. a battery cell comprising a pressure relief mechanism configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; and a fire-fighting pipeline configured to accommodate a fire-fighting medium and discharge the fire-fighting medium when the pressure relief mechanism is actuated; wherein the fire-fighting pipeline is covered with an isolation layer, and the isolation layer is configured to block the contact of gases and the fire-fighting pipeline so as not to generate condensate.