mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine blade for a rotor of a wind turbine having a substantially horizontal rotor shaft, said rotor comprising a hub, from which the blade extends substantially in a radial direction when mounted to the hub, the blade having a longitudinal direction with a tip end and a root end and a transverse direction, the blade further comprising: a profiled contour including a pressure side and a section side, as well as a leading edge (18,56) and a trailing edge (20,58) with a chord having a chord length extending therebetween, the chord provided on a chordal plane arranged along said transverse direction, the profiled contour, when being impacted by an incident air-flow, generating a lift, the wind turbine blade further comprising at least one stall fence (70,72,80,82) provided on a surface of said wind turbine blade, at least a section of said at least one stall fence extending along the transverse direction of said blade at an angle to said chordal plane of between +/- 15-60 degrees, said at least one stall fence acting to direct attached flow over the profiled contour of said blade, wherein said at least one stall fence extends from a first end adjacent said leading edge to a second end adjacent said trailing edge, wherein the height of said at least one stall fence above the surface of the blade is at least 1.5% of the chord length of the blade at the location of said at least one stall fence. a profiled contour including a pressure side and a section side, as well as a leading edge (18,56) and a trailing edge (20,58) with a chord having a chord length extending therebetween, the chord provided on a chordal plane arranged along said transverse direction, the profiled contour, when being impacted by an incident air-flow, generating a lift, the wind turbine blade further comprising at least one stall fence (70,72,80,82) provided on a surface of said wind turbine blade, at least a section of said at least one stall fence extending along the transverse direction of said blade at an angle to said chordal plane of between +/- 15-60 degrees, said at least one stall fence acting to direct attached flow over the profiled contour of said blade, wherein said at least one stall fence extends from a first end adjacent said leading edge to a second end adjacent said trailing edge, wherein the height of said at least one stall fence above the surface of the blade is at least 1.5% of the chord length of the blade at the location of said at least one stall fence.
A method for data erase in a 3D NAND memory device, comprising providing first erase carriers from a body portion for a memory cell string (280, 280', 280"), during an erase operation for resetting memory cells connected in series in the memory cell string (280, 280', 280"), the first erase carriers flowing in a first direction between a source side of the memory cell string (280, 280', 280") and a drain side of the memory cell string (280, 280', 280"), wherein providing the first erase carriers comprises: floating a source terminal at the source side of the memory cell string (280, 280', 280"); and applying a positive voltage to a P-type well corresponding to the body portion of the memory cell string (280, 280', 280"), the positive voltage causing the first erase carriers to flow in the first direction; providing second erase carriers from a junction at the drain side of the memory cell string (280, 280', 280"), during the erase operation, the second erase carriers flowing in a second direction that is opposite of the first direction; and injecting, during the erase operation, the first erase carriers and the second erase carriers to charge storage portions of the memory cells in the memory cell string (280, 280', 280"), the injected first erase carriers and the second erase carriers being stored in the charge storage portions of the memory cells, wherein the first erase carriers and the second erase carriers are holes. providing first erase carriers from a body portion for a memory cell string (280, 280', 280"), during an erase operation for resetting memory cells connected in series in the memory cell string (280, 280', 280"), the first erase carriers flowing in a first direction between a source side of the memory cell string (280, 280', 280") and a drain side of the memory cell string (280, 280', 280"), wherein providing the first erase carriers comprises: floating a source terminal at the source side of the memory cell string (280, 280', 280"); and applying a positive voltage to a P-type well corresponding to the body portion of the memory cell string (280, 280', 280"), the positive voltage causing the first erase carriers to flow in the first direction; floating a source terminal at the source side of the memory cell string (280, 280', 280"); and applying a positive voltage to a P-type well corresponding to the body portion of the memory cell string (280, 280', 280"), the positive voltage causing the first erase carriers to flow in the first direction; providing second erase carriers from a junction at the drain side of the memory cell string (280, 280', 280"), during the erase operation, the second erase carriers flowing in a second direction that is opposite of the first direction; and injecting, during the erase operation, the first erase carriers and the second erase carriers to charge storage portions of the memory cells in the memory cell string (280, 280', 280"), the injected first erase carriers and the second erase carriers being stored in the charge storage portions of the memory cells,
A method of impregnating a matrix with a high thermal conductivity filled resin comprising: impregnating said matrix with a high thermal conductivity material loaded resin, wherein said high thermal conductivity material is 5-60% by volume of said loaded resin, to produce a resin impregnated matrix; compressing said resin impregnated matrix by approximately 5-30% wherein distances between said high thermal conductivity materials loaded in said resin are reduced; and curing said resin impregnated matrix; wherein said high thermal conductivity materials comprises at least one of silica, alumina, magnesium oxide, silicon carbide, boron nitride, aluminum nitride, zinc oxide and diamonds and dendrimers of approximately 1-1000 nm in size, and wherein said high thermal conductivity materials have aspect ratios of 10-50. impregnating said matrix with a high thermal conductivity material loaded resin, wherein said high thermal conductivity material is 5-60% by volume of said loaded resin, to produce a resin impregnated matrix; compressing said resin impregnated matrix by approximately 5-30% wherein distances between said high thermal conductivity materials loaded in said resin are reduced; and curing said resin impregnated matrix; wherein said high thermal conductivity materials comprises at least one of silica, alumina, magnesium oxide, silicon carbide, boron nitride, aluminum nitride, zinc oxide and diamonds and dendrimers of approximately 1-1000 nm in size, and wherein said high thermal conductivity materials have aspect ratios of 10-50.
Injection nozzle for a spray device for drawing in a fluid suction medium by means of a fluid propellant which is under excess pressure and for spraying an admixture of the suction medium and the propellant, having a nozzle housing, having an injection chamber which is arranged in the nozzle housing, having a jet nozzle which opens in the injection chamber for producing a propellant jet which is introduced into the injection chamber, and having a fluid suction opening for the fluid suction medium, wherein the fluid suction opening opens in an annular channel which has a flow connection to the injection chamber, characterized in that at least one pin diaphragm is provided in a suction channel upstream of the fluid suction opening, in that the nozzle housing is provided with a pin diaphragm insert which has a portion of the suction channel for drawing in the fluid suction medium and the pin diaphragm and which is releasably arranged on the nozzle housing, in that the pin diaphragm insert is connected to the nozzle housing by means of a sliding guide, in that the pin diaphragm insert is releasably arranged on an injector component which has at least the jet nozzle and the injection chamber.
Blank for dental purposes which has at least 2 layers, bonded to one another, of lithium silicate glass, lithium silicate glass with nuclei or lithium metasilicate glass ceramic, wherein the layers differ in colour and the layers are monolithic and wherein the lithium silicate glass, the lithium silicate glass with nuclei and the lithium metasilicate glass ceramic comprise 2.00 to 5.00 wt.-% K 2 O.
A mobile terminal comprising: a terminal body having a front surface, the front surface including a first region and a second region; a window mounted on the terminal body and corresponding to the first region and the second region; a display module disposed between the window and the terminal body corresponding to the first region and configured to display visual information; a touch screen part corresponding to the first region of the terminal body configured to sense a touch applied to the window; and a touch key part corresponding to the second region of the terminal body configured to sense a touch applied to a pre-set region on the window; and an illumination unit disposed below the window, characterized by: the mobile terminal further comprising a through hole formed in the window at a position in the second region and a center key disposed in the through hole and configured to be pressed; and the illumination unit being configured to illuminate the touch key part. a terminal body having a front surface, the front surface including a first region and a second region; a window mounted on the terminal body and corresponding to the first region and the second region; a display module disposed between the window and the terminal body corresponding to the first region and configured to display visual information; a touch screen part corresponding to the first region of the terminal body configured to sense a touch applied to the window; and a touch key part corresponding to the second region of the terminal body configured to sense a touch applied to a pre-set region on the window; and an illumination unit disposed below the window, characterized by: the mobile terminal further comprising a through hole formed in the window at a position in the second region and a center key disposed in the through hole and configured to be pressed; and the illumination unit being configured to illuminate the touch key part. the mobile terminal further comprising a through hole formed in the window at a position in the second region and a center key disposed in the through hole and configured to be pressed; and the illumination unit being configured to illuminate the touch key part.
Method of removing a homogeneous catalyst system from a reaction mixture wherein the reaction mixture comprises two liquid phases wherein a membrane comprising at least one separation-active layer separates one of these phases in such a way that the homogeneous catalyst system is concentrated in the membrane retentate at least to an extent, characterized in that the reaction mixture comprises at least one partially epoxidized cyclic unsaturated compound comprising twelve carbon atoms and the membrane separation-active layer comprises crosslinked silicone acrylates and/or polydimethylsiloxane (PDMS) and/or polyimide, and the catalyst system comprises a reaction product of a tungsten, molybdenum or vanadium derivative with a phosphorus derivative in combination with a phase transfer reagent, wherein the tungsten, molybdenum and vanadium derivative is selected from oxides, mixed oxides, oxoacids, salts of oxoacids, sulphides, chlorides, oxychlorides, stearates and the metal carbonyls W 6 and Mo 6, wherein the phosphorus derivative is selected from oxides, oxoacids, salts of an oxoacid, sulphides, chlorides, oxychlorides or fluorides, and wherein the phase transfer reagent is a tertiary or quaternary ammonium compound.
A method for preparing a lithographic printing plate comprising the steps of: exposing to laser light a lithographic printing plate precursor comprising a support; an image-recording layer containing a sensitizing dye, a polymerization initiator, a polymerizable compound and a binder polymer; and a protective layer in this order; and removing the protective layer and an unexposed area of the image-recording layer using a developer containing a compound represented by formula below and a compound represented by formula below, wherein the exposed precursor is not subjected to a water washing step before or after the removal step: X-Y-O- n1 - m1 -H wherein X represents an aromatic group, Y represents a single bond or an alkylene group having 1-10 carbon atoms, A1 and B1 are different from each other and each represents -CH 2 CH 2 O- or -CH 2 CH (CH 3) O-, and n1 and m1 each represents an integer of 0-100, provided that the sum total of n1 and m1 is 12-28; Z-L- n2 - m2 -H wherein Z represents an alkyl group having 1-20 carbon atoms, L represents -O- or -COC-, A2 and B2 are different from each other and each represents -CH 2 CH 2 O- or - CH 2 CH(CH 3)O-, and n2 and m2 each represents an integer of 0-100, provided that the sum total of n2 and m2 is 12-28. exposing to laser light a lithographic printing plate precursor comprising a support; an image-recording layer containing a sensitizing dye, a polymerization initiator, a polymerizable compound and a binder polymer; and a protective layer in this order; and removing the protective layer and an unexposed area of the image-recording layer using a developer containing a compound represented by formula below and a compound represented by formula below, wherein the exposed precursor is not subjected to a water washing step before or after the removal step: X-Y-O- n1 - m1 -H wherein X represents an aromatic group, Y represents a single bond or an alkylene group having 1-10 carbon atoms, A1 and B1 are different from each other and each represents -CH 2 CH 2 O- or -CH 2 CH (CH 3) O-, and n1 and m1 each represents an integer of 0-100, provided that the sum total of n1 and m1 is 12-28; Z-L- n2 - m2 -H wherein Z represents an alkyl group having 1-20 carbon atoms, L represents -O- or -COC-, A2 and B2 are different from each other and each represents -CH 2 CH 2 O- or - CH 2 CH(CH 3)O-, and n2 and m2 each represents an integer of 0-100, provided that the sum total of n2 and m2 is 12-28.
A three-dimensional printer comprising: a base member; a first supporting member supported on said base member such that said first supporting member is movable in the direction of an axis X defining an anteroposterior direction extending in a horizontal plane direction; a second supporting member supported on said first supporting member such that said second supporting member is movable in the direction of an axis Z defining a vertical direction extending in a direction perpendicular to said horizontal plane direction; a third supporting member supported on said second supporting member such that said third supporting member is rotatable about a first rotation axis extending in the direction of an axis Y perpendicular to the directions of the axes X and Z; a holding device (25, 26), for holding the print substrate, supported on said third supporting member such that the holding device is rotatable about a second rotation axis extending in a plane perpendicular to the first rotation axis; a printer head disposed on said base member to extend above the print substrate, held by said holding device, such that said printer head is movable in the direction of the axis Y defining a lateral direction; a movement controller (6, 7) adapted for controlling the movement and rotation of said first through third supporting members and said holding device and for controlling the movement of said printer head; and a printing controller (6, 7) for controlling the ejection of ink from said printer head according to the movement and rotation control by said movement controller. a base member; a first supporting member supported on said base member such that said first supporting member is movable in the direction of an axis X defining an anteroposterior direction extending in a horizontal plane direction; a second supporting member supported on said first supporting member such that said second supporting member is movable in the direction of an axis Z defining a vertical direction extending in a direction perpendicular to said horizontal plane direction; a third supporting member supported on said second supporting member such that said third supporting member is rotatable about a first rotation axis extending in the direction of an axis Y perpendicular to the directions of the axes X and Z; a holding device (25, 26), for holding the print substrate, supported on said third supporting member such that the holding device is rotatable about a second rotation axis extending in a plane perpendicular to the first rotation axis; a printer head disposed on said base member to extend above the print substrate, held by said holding device, such that said printer head is movable in the direction of the axis Y defining a lateral direction; a movement controller (6, 7) adapted for controlling the movement and rotation of said first through third supporting members and said holding device and for controlling the movement of said printer head; and a printing controller (6, 7) for controlling the ejection of ink from said printer head according to the movement and rotation control by said movement controller.
A method for locating an indwelling medical device within a body of a patient, the method comprising: detecting a first peak in a first ECG waveform acquired via a skin-placed first electrode; triggering analysis of a second ECG waveform when the first peak is detected, the second ECG waveform being acquired via a second electrode (240, 230, 310, 320, 475) disposed on a portion of the indwelling medical device; detecting a second peak in the second ECG waveform; and determining a position of the portion of the indwelling medical device based on a characteristic of the second peak, wherein detecting an R-wave peak as the first peak in the first ECG waveform is performed when a P-wave peak is absent in the first ECG waveform due to arrhythmia but at least a portion of a P-wave segment is present in the second ECG waveform, detecting a first peak in a first ECG waveform acquired via a skin-placed first electrode; triggering analysis of a second ECG waveform when the first peak is detected, the second ECG waveform being acquired via a second electrode (240, 230, 310, 320, 475) disposed on a portion of the indwelling medical device; detecting a second peak in the second ECG waveform; and determining a position of the portion of the indwelling medical device based on a characteristic of the second peak, wherein detecting an R-wave peak as the first peak in the first ECG waveform is performed when a P-wave peak is absent in the first ECG waveform due to arrhythmia but at least a portion of a P-wave segment is present in the second ECG waveform,
A light converter for a light source comprising: a substrate, at least one light converting layer attached to the substrate, wherein the light converting layer comprises a phosphor, a first major surface and a second major surface, and the converting layer is configured to admit laser radiation via at least one of the first major surface and the second major surface and to emit converted visible light via the first major surface thereof, a sensor comprising a sensor layer, wherein the sensor layer is electrically conductive, transparent and applied in a pattern across the first major surface of the converting layer, characterized in that the pattern comprises a wire in a meander across the first major surface, terminated by contacts (135A, 135B) at either end, and wherein the meander is of non-overlapping shape and covers at least 50 percent of the first major surface of the converting layer. a substrate, at least one light converting layer attached to the substrate, wherein the light converting layer comprises a phosphor, a first major surface and a second major surface, and the converting layer is configured to admit laser radiation via at least one of the first major surface and the second major surface and to emit converted visible light via the first major surface thereof, a sensor comprising a sensor layer, wherein the sensor layer is electrically conductive, transparent and applied in a pattern across the first major surface of the converting layer, characterized in that the pattern comprises a wire in a meander across the first major surface, terminated by contacts (135A, 135B) at either end, and wherein the meander is of non-overlapping shape and covers at least 50 percent of the first major surface of the converting layer.
A cross-linked scale control agent particle comprising: a scale control agent selected from the group consisting of polymers, oligomers, copolymers, and small molecules of carboxylates, acrylates, sulfates, sulfonates, and mixtures thereof; and a cross-linker selected from the group consisting of glycerol, 1,6-hexanediol, pentaerythritol, polyamines, amino alcohols, polyepoxides, and mixtures thereof, wherein the scale control agent is cross-linked by the cross-linker by ester bonds, amide bonds, imide bonds, or combinations thereof, wherein the size of the particle is from 50 microns to 4000 microns, and wherein the amount of the scale control agent in the particle is from 30 wt% to 95 wt% of the particle. a scale control agent selected from the group consisting of polymers, oligomers, copolymers, and small molecules of carboxylates, acrylates, sulfates, sulfonates, and mixtures thereof; and a cross-linker selected from the group consisting of glycerol, 1,6-hexanediol, pentaerythritol, polyamines, amino alcohols, polyepoxides, and mixtures thereof, wherein the scale control agent is cross-linked by the cross-linker by ester bonds, amide bonds, imide bonds, or combinations thereof, wherein the size of the particle is from 50 microns to 4000 microns, and wherein the amount of the scale control agent in the particle is from 30 wt% to 95 wt% of the particle.