mhurhangee/ep-ind-claims huggingface dataset:
An electric machine, comprising an integrated stator and a housing (12, 13, 14), which housing (12, 13, 14) surrounds the integrated stator with clearance, wherein the integrated stator is mounted in the housing (12, 13, 14) by means of an integrated stator suspension; wherein the integrated stator suspension is especially executed in the form of a plurality of support rings, which support rings enclose the integrated stator and are arranged spaced apart from one another in succession in the axial direction; wherein the electric machine comprises fixing devices for fixing the housing (12, 13, 14) relative to the integrated stator or to the integrated stator suspension, which fixing devices are designed as adjustment devices (38, 39) and locking devices; wherein the adjustment devices (38, 39) are formed from outside the housing (12, 13, 14) for adjustable coupling of the housing (12, 13, 14) to the integrated stator suspension, and the locking devices are formed for locking between the housing (12, 13, 14) and the integrated stator, and wherein the adjustment devices (38, 39) each comprise an adjustment screw (33, 36), which adjustment screws (33, 36) are screwed into the housing (12, 13, 14) from the outside when the electric machine is started up, and the inner ends of which can be positioned on the integrated stator suspension, wherein furthermore the locking devices are arranged during transport of the electric machine and each comprise a locking screw, which locking screws are screwed into the housing from outside through first threaded sleeves which extend inwards in the radial direction relative to the machine axis; wherein the integrated stator has a plurality of compression beams which run in the axial direction distributed on its outer circumference; and in that the inner ends of the locking screws can be positioned on the compression beams; wherein the locking devices are formed for locking between the housing (12, 13, 14) and the integrated stator in that the locking screws are configured and arranged during transport of the electric machine with their inner ends are placed on the integrated stator and secured by counter screws in order to prevent a deformation of the housing (12, 13, 14) due to the forces that occur during transport; wherein the counter screw can be removed after transport and the locking screw can be reset and secured after transport, wherein the adjustment screws (33, 36) are positioned such that they can be screwed into second threaded sleeves (32, 35) in order to minimize housing oscillation amplitudes during operation of the electric machine in a set position by tightening or loosening the adjustment screws (33, 36), in that a clearance between the second threaded sleeve and the integrated stator ensures that no vibrations are transmitted from the integrated stator to the housing (12, 13, 14).
A tool arrangement for compacting a composite preform assembly comprising a support structure preform and an array of component preforms each extending from the support structure preform and spaced apart along the support structure preform, the tool arrangement comprising: a support tool defining a lay-up surface for laying up the support structure preform; a plurality of component moulds, each component mould comprising a pair of blocks configured to cooperate with one another to receive and compact a respective component preform extending from the support structure therebetween, each block having a compaction surface for engaging the component preform and a driving surface, wherein the component moulds are arranged along the support tool so that a plurality of wedge cavities are defined between non-parallel driving surfaces of adjacent component moulds; and a plurality of wedges configured to be received in the wedge cavities and to cooperate with the respective driving surfaces of the component moulds to drive the adjacent blocks to compact respective component preforms; characterized in that the tool arrangement comprises an inner assembly, an outer assembly and an enclosure, the inner assembly further comprising the support tool (110, 210) being a mandrel configured for laying up an annular support structure preform, and wherein the component moulds are configured to be circumferentially spaced around the mandrel, to compact each component preform at circumferentially spaced positions around the mandrel. a support tool defining a lay-up surface for laying up the support structure preform; a plurality of component moulds, each component mould comprising a pair of blocks configured to cooperate with one another to receive and compact a respective component preform extending from the support structure therebetween, each block having a compaction surface for engaging the component preform and a driving surface, wherein the component moulds are arranged along the support tool so that a plurality of wedge cavities are defined between non-parallel driving surfaces of adjacent component moulds; and a plurality of wedges configured to be received in the wedge cavities and to cooperate with the respective driving surfaces of the component moulds to drive the adjacent blocks to compact respective component preforms; characterized in that the tool arrangement comprises an inner assembly, an outer assembly and an enclosure, the inner assembly further comprising the support tool (110, 210) being a mandrel configured for laying up an annular support structure preform, and wherein the component moulds are configured to be circumferentially spaced around the mandrel, to compact each component preform at circumferentially spaced positions around the mandrel.
A device for performing a lateral flow assay (2;2') comprising: - a receptacle having a bottom wall portion closing a first end of the receptacle to delimit an inner material receiving space and having a receptacle opening at a second end opposite the first end; - a compartment for holding a lateral flow assay test strip, the compartment having a lower portion located closer to the first end of the receptacle than to the second end; - a liquid passageway in fluid communication with the inner material receiving space and the lower portion; and - a lid (6;6';6") adapted to overlay the receptacle opening and comprising a body portion having an outer periphery;wherein - a sample receiving portion is located in said body portion and is arranged in liquid communication with the inner material receiving space; and wherein - the liquid passageway is delimited by a first opening into the lower portion of the compartment and a second opening (26;26';26") in the lid (6;6';6"). - a receptacle having a bottom wall portion closing a first end of the receptacle to delimit an inner material receiving space and having a receptacle opening at a second end opposite the first end; - a compartment for holding a lateral flow assay test strip, the compartment having a lower portion located closer to the first end of the receptacle than to the second end; - a liquid passageway in fluid communication with the inner material receiving space and the lower portion; and - a lid (6;6';6") adapted to overlay the receptacle opening and comprising a body portion having an outer periphery;wherein - a sample receiving portion is located in said body portion and is arranged in liquid communication with the inner material receiving space; and wherein - the liquid passageway is delimited by a first opening into the lower portion of the compartment and a second opening (26;26';26") in the lid (6;6';6").
A wiping material dispenser, in the form of a spool which can be unwound into a strip, the dispenser comprising a case and a system for cutting the strip pulled manually by a user, characterised in that the cutting system comprises a flexible blade and at least one tooth (40; 140) mounted on a front side of the case, in that the flexible blade includes at least one slot (31; 131) positioned opposite the at least one tooth (40; 140), and in that the flexible blade is deformable under the pressure of the strip, when a user pulls on the strip from the front side of the case, so that the at least one tooth (40; 140) projects through the at least one slot (31; 131), comes into contact with the strip pressed on the flexible blade, and tears the strip at a pre-cut line.
A self-adhesive curable silicone elastomer composition that can achieve adhesion on plastic/thermoplastic/resin material substrates, comprising: one or more organopolysiloxanes containing at least 2 alkenyl groups and/or alkynyl groups per molecule and having a viscosity in a range of 1000mPa.s to 200,000mPa.s at 25°C, measured using a Brookfield rotational viscometer using spindle LV1 to LV4, an organopolysiloxane containing at least 2 or 3 silicon-bonded hydrogen atoms per molecule, at least one hydrosilylation catalyst, at least one reinforcing and optionally one or more non-reinforcing fillers; and an adhesion promoter an oligomer of the formula (R 3 O) 3 Si-X-(SiR 3 2 -O) y (SiR 3 2 -X) n -(Si R 3 2 -O) z -Y-(O-SiR 3 2) z (XSiR 3 2) n (O-Si R 3 2) y -X-Si(O R 3) 3 wherein Y is -SiR 1 2 -, -SiR 1 R 2 - or -Si R 3 R 1 -O- R 3 R 1 Si- each R 3 may be the same or different and is an alkyl group having 1 to 6 carbons; each X may be the same or different and is an alkylene group having from 1 to 6 carbons; each R 1 is a phenyl group; each R 2 is -(O-SiR 3 2) z (XSiR 3 2) n (O-SiR 3 2) y -X-Si(O R 3) 3; and y is zero or an integer up to 6, n is 0 or 1, z is 0 or 1; with the proviso that z is 0 when n is 0 and y is greater than zero. one or more organopolysiloxanes containing at least 2 alkenyl groups and/or alkynyl groups per molecule and having a viscosity in a range of 1000mPa.s to 200,000mPa.s at 25°C, measured using a Brookfield rotational viscometer using spindle LV1 to LV4, an organopolysiloxane containing at least 2 or 3 silicon-bonded hydrogen atoms per molecule, at least one hydrosilylation catalyst, at least one reinforcing and optionally one or more non-reinforcing fillers; and an adhesion promoter an oligomer of the formula (R 3 O) 3 Si-X-(SiR 3 2 -O) y (SiR 3 2 -X) n -(Si R 3 2 -O) z -Y-(O-SiR 3 2) z (XSiR 3 2) n (O-Si R 3 2) y -X-Si(O R 3) 3 wherein Y is -SiR 1 2 -, -SiR 1 R 2 - or -Si R 3 R 1 -O- R 3 R 1 Si- each R 3 may be the same or different and is an alkyl group having 1 to 6 carbons; each X may be the same or different and is an alkylene group having from 1 to 6 carbons; each R 1 is a phenyl group; each R 2 is -(O-SiR 3 2) z (XSiR 3 2) n (O-SiR 3 2) y -X-Si(O R 3) 3; and y is zero or an integer up to 6, n is 0 or 1, z is 0 or 1; with the proviso that z is 0 when n is 0 and y is greater than zero. Y is -SiR 1 2 -, -SiR 1 R 2 - or -Si R 3 R 1 -O- R 3 R 1 Si- each R 3 may be the same or different and is an alkyl group having 1 to 6 carbons; each X may be the same or different and is an alkylene group having from 1 to 6 carbons; each R 1 is a phenyl group; each R 2 is -(O-SiR 3 2) z (XSiR 3 2) n (O-SiR 3 2) y -X-Si(O R 3) 3; and y is zero or an integer up to 6, n is 0 or 1, z is 0 or 1; with the proviso that z is 0 when n is 0 and y is greater than zero.
A method of detecting a weft yarn in an air jet loom, the air jet loom comprising an optical type weft yarn detection device (91, 93) that is disposed adjacent to an end of a woven fabric that is opposite to a weft insertion side of the air jet loom from which a weft yarn is inserted, the optical type weft yarn detection device (91, 93) being configured to detect the inserted weft yarn and output a detection signal, characterized in that the method includes: setting a first weft yarn detection period between a point in time after a start of a weft insertion at which a weft yarn is inserted and a point in time before the weft insertion is completed; setting a second weft yarn detection period within the first weft yarn detection period so that the second weft yarn detection period starts after the inserted weft yarn is held by warp yarns; setting a first threshold (S1, S3) for the detection signal detected during the first weft yarn detection period; setting a second threshold (S2, S4) for the detection signal detected during the second weft yarn detection period; and determining that a turning back of the inserted weft yarn has occurred when the detection signal detected during the first weft yarn detection period is equal to or greater than the first threshold (S1, S3) and the detection signal detected during the second weft yarn detection period is smaller than the second threshold (S2, S4), wherein the inserted weft yarn once reached the end of the woven fabric but turned back toward the woven fabric. setting a first weft yarn detection period between a point in time after a start of a weft insertion at which a weft yarn is inserted and a point in time before the weft insertion is completed; setting a second weft yarn detection period within the first weft yarn detection period so that the second weft yarn detection period starts after the inserted weft yarn is held by warp yarns; setting a first threshold (S1, S3) for the detection signal detected during the first weft yarn detection period; setting a second threshold (S2, S4) for the detection signal detected during the second weft yarn detection period; and determining that a turning back of the inserted weft yarn has occurred when the detection signal detected during the first weft yarn detection period is equal to or greater than the first threshold (S1, S3) and the detection signal detected during the second weft yarn detection period is smaller than the second threshold (S2, S4), wherein the inserted weft yarn once reached the end of the woven fabric but turned back toward the woven fabric.
A liquid container, characterized in that the liquid container comprises: a container barrel having a liquid inlet, a pressure reducing device mounted to the container barrel and being in connection with the liquid inlet, and a filtering unit disposed inside the container barrel and communicating with the liquid inlet and the pressure reducing device, wherein the pressure reducing device is a vortex generator, characterized in that the filtering unit comprises a top lid, a bottom lid, a plurality of filter cores installed between the top lid and the bottom lid, a seal ring sleeved on a periphery of the bottom lid, a handle, and an upright post mounted to the bottom lid and extending through one of the filter cores and the top lid to connect the handle. a container barrel having a liquid inlet, a pressure reducing device mounted to the container barrel and being in connection with the liquid inlet, and a filtering unit disposed inside the container barrel and communicating with the liquid inlet and the pressure reducing device, wherein the pressure reducing device is a vortex generator, characterized in that the filtering unit comprises a top lid, a bottom lid, a plurality of filter cores installed between the top lid and the bottom lid, a seal ring sleeved on a periphery of the bottom lid, a handle, and an upright post mounted to the bottom lid and extending through one of the filter cores and the top lid to connect the handle.
A blanket for fastening on a blanket cylinder, at least comprising an inner support layer, a first intermediate layer designed as a fabric layer and an outer covering layer, wherein the fabric layer contains warp threads and weft threads, wherein blanket is designed as a sleeve-like blanket, the blanket can be fastened on the blanket cylinder in such a manner that the warp threads extend in axial direction of the blanket cylinder and the weft threads in circumferential direction of the blanket cylinder and the blanket is designed radially stretchable in such a manner that expansion of the blanket through radial stretching for pushing the blanket onto the blanket cylinder can take place first and shrinking of the blanket onto the blanket cylinder can subsequently take place by relaxing the radial stretch.
An elevator control system comprising: a converter that converts an electric power from an AC power supply to a DC power using semiconductor elements; a capacitor that smoothes the DC power; an inverter that converts the DC power to an arbitrary AC power using switching elements and drives a motor moving an elevator car; a control means that performs on-off control of the switching elements; a control power-source means that generates a DC power on the basis of the AC power supply and supplies the DC power to the control means; a rechargeable battery that supplies a DC power to the control power-source means when the AC power supply is lost; a first voltage detection means that detects a value of a first voltage being the output of the control power-source means; a first determination means that determines whether or not the first voltage value is a first threshold value or smaller; and a supply means (Se) that supplies the DC power from the rechargeable battery to the control means when the first voltage value becomes the first threshold value or smaller; characterized by a discharge means that discharges electric charges in the capacitor in response to loss of the AC power supply; a second voltage detection means that detects a second voltage value being a value of the voltage across the capacitor; and a second determination means that determines whether or not the second voltage value is larger than a second threshold value, wherein the supply means (Se) supplies the DC power from the rechargeable battery to the control means also when the second voltage value is larger than the second threshold value. a converter that converts an electric power from an AC power supply to a DC power using semiconductor elements; a capacitor that smoothes the DC power; an inverter that converts the DC power to an arbitrary AC power using switching elements and drives a motor moving an elevator car; a control means that performs on-off control of the switching elements; a control power-source means that generates a DC power on the basis of the AC power supply and supplies the DC power to the control means; a rechargeable battery that supplies a DC power to the control power-source means when the AC power supply is lost; a first voltage detection means that detects a value of a first voltage being the output of the control power-source means; a first determination means that determines whether or not the first voltage value is a first threshold value or smaller; and a supply means (Se) that supplies the DC power from the rechargeable battery to the control means when the first voltage value becomes the first threshold value or smaller;
A spinal anchoring system for implanting in bone, comprising: a bone screw; a first coupling assembly that receives and holds a first stabilization element; a second coupling assembly that receives and holds a second stabilization element; and a plate that attaches to the first coupling assembly and to the second coupling assembly, wherein the first coupling assembly attaches to the bone screw, wherein the first coupling assembly comprises a first coupling body that receives and holds the first stabilization element and a first clamp that fastens the first coupling body to the plate, wherein the plate comprises a plate-coupling lock that locks the plate to the first coupling body and a plate-clamp lock that locks the plate to the first clamp. a bone screw; a first coupling assembly that receives and holds a first stabilization element; a second coupling assembly that receives and holds a second stabilization element; and a plate that attaches to the first coupling assembly and to the second coupling assembly, wherein the first coupling assembly attaches to the bone screw, wherein the first coupling assembly comprises a first coupling body that receives and holds the first stabilization element and a first clamp that fastens the first coupling body to the plate, wherein the plate comprises a plate-coupling lock that locks the plate to the first coupling body and a plate-clamp lock that locks the plate to the first clamp.
A method for controlling a resonance enhanced rotary drill comprising a rotary drill bit and an oscillator (3, 42) for applying axial oscillatory loading to the rotary drill bit, the method comprising: controlling frequency (f) of the oscillator in the resonance enhanced rotary drill whereby the frequency (f) is maintained in the range D 2 U s / 8000 π Am 1 / 2 ≤ f ≤ S f D 2 U s / 8000 π Am 1 / 2 where D is diameter of the rotary drill bit, U s is compressive strength of material being drilled, A is amplitude of vibration, m is vibrating mass, and S f is a scaling factor greater than 1; and controlling dynamic force (F d) of the oscillator in the resonance enhanced rotary drill whereby the dynamic force (F d) is maintained in the range π / 4 D 2 eff U s ≤ F d ≤ S Fd π / 4 D 2 eff U s where D eff is an effective diameter of the rotary drill bit, U s is a compressive strength of material being drilled, and S Fd is a scaling factor greater than 1, wherein the frequency (f) and the dynamic force (F d) of the oscillator are controlled by monitoring signals representing the compressive strength (U s) of the material being drilled and adjusting the frequency (f) and the dynamic force (F d) of the oscillator using a closed loop real-time feedback mechanism according to changes in the compressive strength (U s) of the material being drilled. controlling frequency (f) of the oscillator in the resonance enhanced rotary drill whereby the frequency (f) is maintained in the range D 2 U s / 8000 π Am 1 / 2 ≤ f ≤ S f D 2 U s / 8000 π Am 1 / 2 where D is diameter of the rotary drill bit, U s is compressive strength of material being drilled, A is amplitude of vibration, m is vibrating mass, and S f is a scaling factor greater than 1; and controlling dynamic force (F d) of the oscillator in the resonance enhanced rotary drill whereby the dynamic force (F d) is maintained in the range π / 4 D 2 eff U s ≤ F d ≤ S Fd π / 4 D 2 eff U s where D eff is an effective diameter of the rotary drill bit, U s is a compressive strength of material being drilled, and S Fd is a scaling factor greater than 1, wherein the frequency (f) and the dynamic force (F d) of the oscillator are controlled by monitoring signals representing the compressive strength (U s) of the material being drilled and adjusting the frequency (f) and the dynamic force (F d) of the oscillator using a closed loop real-time feedback mechanism according to changes in the compressive strength (U s) of the material being drilled.
Apparatus for endovascularly replacing a patient's heart valve, the apparatus comprising: an expandable anchor supporting a replacement valve, the anchor having a delivery configuration and a deployed configuration, characterized in that the anchor comprises edge cell configurations about its proximal circumference that first cant outward, and then cant inward. an expandable anchor supporting a replacement valve, the anchor having a delivery configuration and a deployed configuration, characterized in that the anchor comprises edge cell configurations about its proximal circumference that first cant outward, and then cant inward.