mhurhangee/ep-ind-claims huggingface dataset:
Radiation-emitting component comprising - a semiconductor layer stack having an active region embodied for the emission of electromagnetic radiation, and - at least one surface (14, 15, 16, 17) of the semiconductor layer stack or of an optical element (18, 20) embodied for the transmission of the electromagnetic radiation wherein the surface 14, 15, 16, 17) has a normal vector, wherein on the at least one surface (14, 15, 16, 17) of the semiconductor layer stack or of the optical element (18, 20) through which the electromagnetic radiation passes, an antireflection layer is arranged and embodied in such a way that, for a predetermined wavelength, which is an emission wavelength of the semiconductor layer stack, it has a minimum reflection at a viewing angle (ALPHA) relative to the normal vector of the surface (14, 15, 16, 17), characterized in that the increase in the luminous flux angle distribution of the electromagnetic radiation, said distribution being integrated over a solid angle range of between 0o and the viewing angle, has a maximum at a viewing angle of between 30o and 60o, and the antireflection layer is embodied in such a way that, for the predetermined wavelength, it has the minimum reflection at the viewing angle (ALPHA) relative to the normal vector of between 30° and 60°. - a semiconductor layer stack having an active region embodied for the emission of electromagnetic radiation, and - at least one surface (14, 15, 16, 17) of the semiconductor layer stack or of an optical element (18, 20) embodied for the transmission of the electromagnetic radiation wherein the surface 14, 15, 16, 17) has a normal vector, wherein on the at least one surface (14, 15, 16, 17) of the semiconductor layer stack or of the optical element (18, 20) through which the electromagnetic radiation passes, an antireflection layer is arranged and embodied in such a way that, for a predetermined wavelength, which is an emission wavelength of the semiconductor layer stack, it has a minimum reflection at a viewing angle (ALPHA) relative to the normal vector of the surface (14, 15, 16, 17), characterized in that the increase in the luminous flux angle distribution of the electromagnetic radiation, said distribution being integrated over a solid angle range of between 0o and the viewing angle, has a maximum at a viewing angle of between 30o and 60o, and the antireflection layer is embodied in such a way that, for the predetermined wavelength, it has the minimum reflection at the viewing angle (ALPHA) relative to the normal vector of between 30° and 60°.
A tissue marking beacon, comprising: a storage capacitor (201, 401) including an onboard power coil, the onboard power coil configured to wirelessly receive energy from a radio frequency field generator and store an electrical charge in the storage capacitor; wherein the tissue marking beacon comprises at least one first light-emitting diode configured to emit pulsatile near-infrared light upon receiving a current from the storage capacitor; and a second storage capacitor; and at least one second LED. a storage capacitor (201, 401) including an onboard power coil, the onboard power coil configured to wirelessly receive energy from a radio frequency field generator and store an electrical charge in the storage capacitor; wherein the tissue marking beacon comprises at least one first light-emitting diode configured to emit pulsatile near-infrared light upon receiving a current from the storage capacitor; and a second storage capacitor; and at least one second LED.
A compound of formula or a pharmaceutically acceptable salt thereof, wherein, R 1 is H, halogen, CN, CH 3, CH 2 CH 3, CF 3, cyclopropyl, phenyl or pyridyl; X is C or N; Y is S, O, N or N(CH 3); Z is C(R 21)(R 22), C(=O), O or S; W is C(R 61)(R 62) or C(=O); is a five-membered heteroaryl; each of R 21, R 22, R 61 and R 62 is independently H, halogen, hydroxyl, amino or methoxy; m is 0, 1 or 2; R 3 is phenyl or pyridyl, which is optionally substituted by 1, 2 or 3 R; each of R 4 and R 5 is independently H or CH 3; R is F, Cl, CN or CF 3. R 1 is H, halogen, CN, CH 3, CH 2 CH 3, CF 3, cyclopropyl, phenyl or pyridyl; X is C or N; Y is S, O, N or N(CH 3); Z is C(R 21)(R 22), C(=O), O or S; W is C(R 61)(R 62) or C(=O); is a five-membered heteroaryl; each of R 21, R 22, R 61 and R 62 is independently H, halogen, hydroxyl, amino or methoxy; m is 0, 1 or 2; R 3 is phenyl or pyridyl, which is optionally substituted by 1, 2 or 3 R; each of R 4 and R 5 is independently H or CH 3; R is F, Cl, CN or CF 3.
Connection arrangement of an awning comprising an awning fabric having a tendon portion; a receiving member, preferably a lead rail of said awning, having a groove for receiving said tendon portion and extending in a longitudinal direction of said receiving member, wherein said awning fabric and said groove are configured such that said tendon portion is slidable into said groove in said longitudinal direction; and a means for reducing a play between said tendon portion and said receiving member along substantially the entire length of said tendon portion, wherein said means comprises an elongate elastic urging member for urging said tendon portion against an inner wall of said groove, wherein said urging member is configured to be inserted in said groove by being pressed between a circumferential portion of said tendon portion and said inner wall of said groove after said tendon portion is inserted in said groove, characterized in that said groove comprises an accommodating recess formed along said groove in the longitudinal direction of the groove and adapted to accommodate a portion of said urging member thereby defining a final location of the urging member when it is correctly positioned in said groove. an awning fabric having a tendon portion; a receiving member, preferably a lead rail of said awning, having a groove for receiving said tendon portion and extending in a longitudinal direction of said receiving member, wherein said awning fabric and said groove are configured such that said tendon portion is slidable into said groove in said longitudinal direction; and a means for reducing a play between said tendon portion and said receiving member along substantially the entire length of said tendon portion, wherein said means comprises an elongate elastic urging member for urging said tendon portion against an inner wall of said groove, wherein said urging member is configured to be inserted in said groove by being pressed between a circumferential portion of said tendon portion and said inner wall of said groove after said tendon portion is inserted in said groove, characterized in that said groove comprises an accommodating recess formed along said groove in the longitudinal direction of the groove and adapted to accommodate a portion of said urging member thereby defining a final location of the urging member when it is correctly positioned in said groove.
Composite for an acoustic component, comprising - at least one carrier layer (11, 15) and - an electrospinning membrane which is arranged on the at least one carrier layer (11, 15), wherein the electrospinning membrane is formed of fibres superimposed on one another, under forming a pore structure, wherein the pore structure is formed such that - the composite has a hydrostatic head of at least 1 m according to ISO 811:1981 and an air permeability of at least 5 L/m 2 ·s according to ISO 9237:1995-12, - wherein the carrier layer (11, 15) is rigidly connected to the electrospinning membrane by means of a hot-melt method, in particular by means of a laser, by ultrasonic welding, by lamination, by adhesive bonding, by plasma treatment, or a combination thereof, - wherein a plasma coating is applied both to the electrospinning membrane and to the at least one carrier layer (11, 15), and - wherein the carrier layer (11, 15) is a non-woven fabric or a textile. - at least one carrier layer (11, 15) and - an electrospinning membrane which is arranged on the at least one carrier layer (11, 15), wherein the electrospinning membrane is formed of fibres superimposed on one another, under forming a pore structure, wherein the pore structure is formed such that - the composite has a hydrostatic head of at least 1 m according to ISO 811:1981 and an air permeability of at least 5 L/m 2 ·s according to ISO 9237:1995-12, - wherein the carrier layer (11, 15) is rigidly connected to the electrospinning membrane by means of a hot-melt method, in particular by means of a laser, by ultrasonic welding, by lamination, by adhesive bonding, by plasma treatment, or a combination thereof, - wherein a plasma coating is applied both to the electrospinning membrane and to the at least one carrier layer (11, 15), and - wherein the carrier layer (11, 15) is a non-woven fabric or a textile.
A method for manufacturing an electronic component mounting substrate comprising: preparing a substrate having an electronic component and an electrode portion mounted on a surface thereof, the electrode portion being electrically connected to the electronic component, the substrate being provided with a lead wire connected at one end thereof to the electrode portion; forming a deposited film on the surface of the substrate and a surface of the lead wire, the deposited film being a poly-para-chloro-xylylene resin, and the thickness of the deposited film is in the range of 5 μm to 150 μm; encapsulating the substrate and a part of the lead wire in an encapsulation resin such that the lead wire extends outside of the encapsulation resin, and heating the substrate and the lead wire, to between 100°C and 120°C for 5 minutes, between the forming of the deposited film and the encapsulating of the surfaces in the encapsulation resin. preparing a substrate having an electronic component and an electrode portion mounted on a surface thereof, the electrode portion being electrically connected to the electronic component, the substrate being provided with a lead wire connected at one end thereof to the electrode portion; forming a deposited film on the surface of the substrate and a surface of the lead wire, the deposited film being a poly-para-chloro-xylylene resin, and the thickness of the deposited film is in the range of 5 μm to 150 μm; encapsulating the substrate and a part of the lead wire in an encapsulation resin such that the lead wire extends outside of the encapsulation resin, and heating the substrate and the lead wire, to between 100°C and 120°C for 5 minutes, between the forming of the deposited film and the encapsulating of the surfaces in the encapsulation resin.
A method for automated prostate tumor detection and classification in multi-parametric magnetic resonance imaging images of a patient, comprising: receiving a multi-parametric MRI image set of a patient, wherein the multi-parametric MRI image set includes a plurality of different types of MRI images of the patient; and performing simultaneous detection and classification of prostate tumors in the multi-parametric MRI image set of the patient using a trained multi-channel image-to-image convolutional encoder-decoder, wherein the trained multi-channel image-to image convolutional encoder-decoder includes multiple input channels to input multiple MRI images of the multi-parametric MRI image set of the patient and a plurality of output channels corresponding to a plurality of different tumor classes, and for each output channel, the trained multi-channel image-to image convolutional encoder-decoder generates a respective response map that provides detected locations of prostate tumors of the corresponding tumor class in the multi-parametric MRI image set of the patient, wherein for the respective response map generated by the trained multi-channel image-to image convolutional encoder-decoder for each output channel is an image with intensity values that peak at each detected location of a prostate tumor of the corresponding tumor class and follow a Gaussian distribution in a vicinity of each detected location of a prostate tumor of the corresponding tumor class. receiving a multi-parametric MRI image set of a patient, wherein the multi-parametric MRI image set includes a plurality of different types of MRI images of the patient; and performing simultaneous detection and classification of prostate tumors in the multi-parametric MRI image set of the patient using a trained multi-channel image-to-image convolutional encoder-decoder, wherein the trained multi-channel image-to image convolutional encoder-decoder includes multiple input channels to input multiple MRI images of the multi-parametric MRI image set of the patient and a plurality of output channels corresponding to a plurality of different tumor classes, and for each output channel, the trained multi-channel image-to image convolutional encoder-decoder generates a respective response map that provides detected locations of prostate tumors of the corresponding tumor class in the multi-parametric MRI image set of the patient,
A positive electrode active material, satisfying a chemical formula Li 1+ x (Ni a Co b Mn c) 1- d M d O 2- y A y, wherein M is one or more selected from Zr, Sr, B, Ti, Mg, Sn and Al, A is one or more selected from S, N, F, Cl, Br and I, -0.01 ≤ x ≤ 0.2, 0.12 ≤ b / c ≤ 0.9, 0.002 ≤ b × c / a 2 ≤ 0.23, a + b + c = 1, 0 ≤ d ≤ 0.1, and 0 ≤ y < 0.2; and an interval particle size distribution curve of the positive electrode active material has a full width at half maximum D FW of from 4 μm to 8 μm.
Device for subjecting products to a gas flow, for example, for the purpose of a drying or freezing process, comprising: a lower and upper grid (12, 11), which are arranged parallel at a certain distance above each other, which lower and upper grid are each provided with a large number of passage openings for the gas flow and in which, during operation, the to the gas flow subject products can be arranged on the upper grid; a plurality of balls which are freely movable between the lower and upper grid, as well as gas flow generating means (16a, 16b) for generating and for providing the gas flow through the top and bottom grid towards the products, characterised in that the distance between the lower and upper grid is substantial equal to the diameter of the balls, such that the balls are arranged in a single layer between the grids. a lower and upper grid (12, 11), which are arranged parallel at a certain distance above each other, which lower and upper grid are each provided with a large number of passage openings for the gas flow and in which, during operation, the to the gas flow subject products can be arranged on the upper grid; a plurality of balls which are freely movable between the lower and upper grid, as well as gas flow generating means (16a, 16b) for generating and for providing the gas flow through the top and bottom grid towards the products, characterised in that the distance between the lower and upper grid is substantial equal to the diameter of the balls, such that the balls are arranged in a single layer between the grids.
A coating apparatus for applying a coating on glass containers with a chemical compound comprising: a housing with a coating tunnel a conveyer belt moving the containers through the coating tunnel from the inlet to the outlet of the said coating tunnel at least one circuit for circulation of a coating compound and at least one guidance plate, characterized that said guidance plate is situated in a compartment between the inner side wall of the coating apparatus and the outer wall and said compartment comprising the guidance plate, a fixing plate with fixing means, a suction hole and an exit and characterized that the guidance plate is the in form of a cylinder, either an elliptical or circular cylinder, or rounded prism as a prism of a rounded rectangle or a cone frustum, either an elliptical or circular cone frustum. a housing with a coating tunnel a conveyer belt moving the containers through the coating tunnel from the inlet to the outlet of the said coating tunnel at least one circuit for circulation of a coating compound and at least one guidance plate, characterized that said guidance plate is situated in a compartment between the inner side wall of the coating apparatus and the outer wall and said compartment comprising the guidance plate, a fixing plate with fixing means, a suction hole and an exit and characterized that the guidance plate is the in form of a cylinder, either an elliptical or circular cylinder, or rounded prism as a prism of a rounded rectangle or a cone frustum, either an elliptical or circular cone frustum.
A brewing device for brewing tea or coffee comprising a handle (10,51), an actuator (13, 54), and a steeping portion, characterised in that said steeping portion comprises a squeezing strip (12,52) and a resiliently deformable frame (22,53) for retaining a porous or filter bag, said actuator (13,54) is arranged to extend through said handle (10,51), and said squeezing strip is operative to, on relative motion of said handle (10,51) and actuator, deform said frame (22,53) and any said retained bag in a squeezing action.
A chopper assembly for a crop residue distribution system of an agricultural combine, the chopper assembly comprising a rotor shaft extending lengthwise along a rotational axis between a first end and a second end,the chopper assembly further comprising a plurality of flail blades pivotally coupled to the rotor shaft, each flail blade configured to pivot relative to the rotor shaft about a pivot axis, the plurality of flail blades being spaced apart axially from one another between the first and second ends of the rotor shaft, the chopper assembly being characterized by: a plurality of fixed blades non-pivotally coupled to the rotor shaft, the plurality of fixed blades being spaced apart axially from one another between the first and second ends of the rotor shaft, wherein each fixed blade is positioned at one of the axial locations of the flail blades, so that each fixed blade is axially aligned with the flail blade(s) installed at such location. a plurality of fixed blades non-pivotally coupled to the rotor shaft, the plurality of fixed blades being spaced apart axially from one another between the first and second ends of the rotor shaft, wherein each fixed blade is positioned at one of the axial locations of the flail blades, so that each fixed blade is axially aligned with the flail blade(s) installed at such location.
An apparatus (100, 200, 300, 400) for inspecting defects of a secondary battery, the apparatus (100, 200, 300, 400) comprising: a pair of pressing jigs (110, 120; 110'; 110"; 210, 220; 310, 320) for pressing an outer surface of an electrode assembly or a pouch accommodating the electrode assembly in directions towards each other, and on which a plurality of protrusions (111, 121; 111'; 111"; 211, 221; 311, 321) protrude, respectively facing each other, from pressing surfaces of the pair of pressing jigs (110, 120; 110'; 110"; 210, 220; 310, 320); and a measurement unit for measuring one or more of current, a voltage, and resistance of the electrode assembly when the electrode assembly is pressed by the plurality of protrusions (111, 121; 111'; 111''; 211, 221; 311, 321) of the pair of pressing jigs (110, 120; 110'; 110"; 210, 220; 310, 320). a pair of pressing jigs (110, 120; 110'; 110"; 210, 220; 310, 320) for pressing an outer surface of an electrode assembly or a pouch accommodating the electrode assembly in directions towards each other, and on which a plurality of protrusions (111, 121; 111'; 111"; 211, 221; 311, 321) protrude, respectively facing each other, from pressing surfaces of the pair of pressing jigs (110, 120; 110'; 110"; 210, 220; 310, 320); and a measurement unit for measuring one or more of current, a voltage, and resistance of the electrode assembly when the electrode assembly is pressed by the plurality of protrusions (111, 121; 111'; 111''; 211, 221; 311, 321) of the pair of pressing jigs (110, 120; 110'; 110"; 210, 220; 310, 320).
A method for filling a thermoplastic container, comprising a mouth, with a gasified liquid-having a pressure P, said method using a filling unit and comprising the steps of: - Positioning the container under a filling head of the filling unit, the filling head comprising a product filling valve; - Establishing fluid tight connection between the filling head and the mouth of the container; - Delivering a first volume of a first product in the container, said first volume being less than 10% of the maximum defined volume of the container, wherein during the delivery of the first volume of the first product, the container is at atmospheric pressure; - Pressurizing the container with a pressurized gas at a pressure similar to the pressure of the gasified liquid to be filled, the pressure at which the container is pressurized being between 2 and 6 bars, using at least one pressurization valve (9a, 9b), after a resident time, defined as the time between delivering of the first volume of the first product in the container and pressurizing the container, of between 0.1 and 5 s; - Filling the container under pressurized condition until its maximum defined volume with the gasified liquid, using the product filling valve; - Depressurizing the container using a venting valve; - Separating the container from the filling head; the resulting gasified liquid in the container being a mixture of the first product and of the gasified liquid. - Positioning the container under a filling head of the filling unit, the filling head comprising a product filling valve; - Establishing fluid tight connection between the filling head and the mouth of the container; - Delivering a first volume of a first product in the container, said first volume being less than 10% of the maximum defined volume of the container, wherein during the delivery of the first volume of the first product, the container is at atmospheric pressure; - Pressurizing the container with a pressurized gas at a pressure similar to the pressure of the gasified liquid to be filled, the pressure at which the container is pressurized being between 2 and 6 bars, using at least one pressurization valve (9a, 9b), after a resident time, defined as the time between delivering of the first volume of the first product in the container and pressurizing the container, of between 0.1 and 5 s; - Filling the container under pressurized condition until its maximum defined volume with the gasified liquid, using the product filling valve; - Depressurizing the container using a venting valve; - Separating the container from the filling head; the resulting gasified liquid in the container being a mixture of the first product and of the gasified liquid.
An analyte test sensor, comprising at least two substrates forming a reservoir, and at least one sample port in fluid communication with the reservoir, the reservoir including a primary area and four first secondary analysis regions, where each first secondary analysis region includes a working electrode, the working electrode formed from a reagent composition and a first conductor, characterized by four second secondary analysis regions, where each second secondary analysis region includes one counter electrode, the counter electrode formed from a charge transfer system and a second conductor, and further characterized in that each first secondary analysis region includes a vent in fluid communication with the first secondary analysis region; and each second secondary analysis region includes a vent in fluid communication with the second secondary analysis region; and where a straight line passing from one of the working electrodes through one of the first secondary analysis regions and through the primary area cannot be drawn through one of the second secondary analysis regions to one of the counter electrodes.