mhurhangee/ep-ind-claims huggingface dataset:
Hard coating comprising at least one layer comprising chromium, aluminum tantalum and nitrogen as main components and having chemical composition regarding these elements according to the formula: (Al a Cr b Ta c)N, where the coefficients a, b and c are respectively of the concentration of aluminum, chromium and tantalum in atomic ratio considering only Al, Cr and Ta for the calculation of the element composition in the layer, characterized by the at least one layer having element composition (Al a Cr b Ta c)N layer: - has coefficients a, b and c satisfying following conditions: ∘ a = x·(1-c), ∘ b = (1-x)·(1-c), ∘ 0.60 ≤ x ≤ 0.70, ∘ 0.01 ≤ c ≤ 0.5, ∘ wherein 0.44 ≤ a ≤ 0.66, and - exhibits a X-ray diffraction peak intensity ratio I 200 /(I 200 +I 111) ≥ 0.25, wherein said peak intensity ratio presents a variation along the layer thickness in such a manner that it is lower in the area near to the substrate than in the area near to the coating surface. - has coefficients a, b and c satisfying following conditions: ∘ a = x·(1-c), ∘ b = (1-x)·(1-c), ∘ 0.60 ≤ x ≤ 0.70, ∘ 0.01 ≤ c ≤ 0.5, ∘ wherein 0.44 ≤ a ≤ 0.66, and ∘ a = x·(1-c), ∘ b = (1-x)·(1-c), ∘ 0.60 ≤ x ≤ 0.70, ∘ 0.01 ≤ c ≤ 0.5, ∘ wherein 0.44 ≤ a ≤ 0.66, - exhibits a X-ray diffraction peak intensity ratio I 200 /(I 200 +I 111) ≥ 0.25, wherein said peak intensity ratio presents a variation along the layer thickness in such a manner that it is lower in the area near to the substrate than in the area near to the coating surface.
Method for separating a glass element (1, 11) at least section-wise into at least two partial glass elements along a separation surface, comprising the steps of: providing the glass element (1, 11), which comprises at least one glass body (3, 13) comprising at least one glass material; controlling at least one line focus within the glass body (3, 13) in such a way that at least one tensile stress zone and/or at least two compressive stress zones are formed in the glass material along the separation surface; introducing an initial damage to form at least one crack respectively in the glass material in the tensile stress zone and/or between the two compressive stress zones; and advancing the crack within the glass material in the tensile stress zone and/or between the two compressive stress zones to form the separation surface and separating the glass element (1, 11) along this separation surface. providing the glass element (1, 11), which comprises at least one glass body (3, 13) comprising at least one glass material; controlling at least one line focus within the glass body (3, 13) in such a way that at least one tensile stress zone and/or at least two compressive stress zones are formed in the glass material along the separation surface; introducing an initial damage to form at least one crack respectively in the glass material in the tensile stress zone and/or between the two compressive stress zones; and advancing the crack within the glass material in the tensile stress zone and/or between the two compressive stress zones to form the separation surface and separating the glass element (1, 11) along this separation surface.
A method for monitoring fitting rooms and/or fitting areas, the following steps are performed in the method: detecting number, type, size and/or colour of products brought to the fitting room and/or fitting area by detecting presence of remotely readable identification tags, electronic article surveillance tags and/or electronic price labels in the fitting room and/or fitting area and reading product information linked to the remotely readable identification tag, electronic article surveillance tag and/or electronic price label, comparing detected number, type, size and/or colour of products to predefined criteria, the criteria relating to the number, type, size and/or colour of products, characterized in that generating an alarm based on the detected number, type, size and/or colour of products if at least one predefined criterion is fulfilled, wherein the predefined criteria are fulfilled when more than two sizes and/or colours of a same product are detected in the fitting room or fitting area, more than two different sizes of a same product are detected in the fitting room or fitting area and/or more than one different type of product is detected in the fitting room or fitting area, the different types being clothes for children, clothes for men and clothes for women. detecting number, type, size and/or colour of products brought to the fitting room and/or fitting area by detecting presence of remotely readable identification tags, electronic article surveillance tags and/or electronic price labels in the fitting room and/or fitting area and reading product information linked to the remotely readable identification tag, electronic article surveillance tag and/or electronic price label, comparing detected number, type, size and/or colour of products to predefined criteria, the criteria relating to the number, type, size and/or colour of products, characterized in that generating an alarm based on the detected number, type, size and/or colour of products if at least one predefined criterion is fulfilled, wherein the predefined criteria are fulfilled when more than two sizes and/or colours of a same product are detected in the fitting room or fitting area, more than two different sizes of a same product are detected in the fitting room or fitting area and/or more than one different type of product is detected in the fitting room or fitting area, the different types being clothes for children, clothes for men and clothes for women.
Plastic housing for electronic devices, especially remote controls, comprising a first housing part and a second housing part, wherein the first housing part includes a joint surface directed towards the second housing part and the second housing part includes a joint surface directed towards the first housing part, wherein the two housing parts (3, 4) are assembled so that they are adjacent to each other, and wherein the joint surfaces are formed as miter surfaces, characterized in that the plastic housing is manufactured by a process in which a raw material is introduced into mold cavities forming the housing parts (3, 4) and air is evacuated from the mold cavities through venting points located at or near the areas in the mold cavities where the miter surfaces of the housing parts (3, 4) are formed, wherein support surfaces for ejector pins are formed on the miter surfaces.
A vector, comprising: a Small Rubber Particle Protein encoding gene promoter; and a gene encoding a protein involved in polyisoprenoid biosynthesis, the gene being functionally linked to the promoter, wherein the gene encoding a protein involved in polyisoprenoid biosynthesis is at least one gene selected from the group consisting of a gene encoding farnesyl diphosphate synthase, a gene encoding geranylgeranyl diphosphate synthase, a gene encoding 3-hydroxy-3-methylglutaryl CoA reductase, a gene encoding isopentenyl diphosphate isomerase, a gene encoding cis-prenyltransferase, a gene encoding Small Rubber Particle Protein, and a gene encoding Rubber Elongation Factor, wherein the Small Rubber Particle Protein encoding gene promoter comprises any one of the following DNAs: a DNA comprising the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1; a DNA hybridizing to a DNA comprising a base sequence complementary to the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1 under stringent conditions, and having a promoter activity for laticifer-specific gene expression; and a DNA comprising a base sequence having 80% or more sequence identity with the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1, and having a promoter activity for laticifer-specific gene expression. a Small Rubber Particle Protein encoding gene promoter; and a gene encoding a protein involved in polyisoprenoid biosynthesis, the gene being functionally linked to the promoter, wherein the gene encoding a protein involved in polyisoprenoid biosynthesis is at least one gene selected from the group consisting of a gene encoding farnesyl diphosphate synthase, a gene encoding geranylgeranyl diphosphate synthase, a gene encoding 3-hydroxy-3-methylglutaryl CoA reductase, a gene encoding isopentenyl diphosphate isomerase, a gene encoding cis-prenyltransferase, a gene encoding Small Rubber Particle Protein, and a gene encoding Rubber Elongation Factor, wherein the Small Rubber Particle Protein encoding gene promoter comprises any one of the following DNAs: a DNA comprising the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1; a DNA hybridizing to a DNA comprising a base sequence complementary to the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1 under stringent conditions, and having a promoter activity for laticifer-specific gene expression; and a DNA comprising a base sequence having 80% or more sequence identity with the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1, and having a promoter activity for laticifer-specific gene expression. a DNA comprising the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1; a DNA hybridizing to a DNA comprising a base sequence complementary to the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1 under stringent conditions, and having a promoter activity for laticifer-specific gene expression; and a DNA comprising a base sequence having 80% or more sequence identity with the base sequence of base numbers 1 to 919 represented by SEQ ID NO: 1, and having a promoter activity for laticifer-specific gene expression.
A method performed by a user equipment, UE, in a mobile communication system, the method comprising: receiving, from a base station, information for configuring a waiting time, wherein the waiting time starts upon sending a measurement report for triggering a handover to the base station while a timer T310 regarding a radio link failure, RLF, is running; if a handover command message is not received by the UE within the waiting time while the timer T310 is running, performing a radio resource control, RRC, connection re-establishment; and if the timer T310 expires, performing the RRC connection re-establishment. receiving, from a base station, information for configuring a waiting time, wherein the waiting time starts upon sending a measurement report for triggering a handover to the base station while a timer T310 regarding a radio link failure, RLF, is running; if a handover command message is not received by the UE within the waiting time while the timer T310 is running, performing a radio resource control, RRC, connection re-establishment; and if the timer T310 expires, performing the RRC connection re-establishment.
A screen unlocking method of an electronic terminal, the method comprising: counting recorded debug parameters used for selecting target images in the most recent N instances, to determine a most frequently used debug parameter, wherein N is a natural number, wherein each of the target images is selected in a corresponding instance of the most recent N instances by using corresponding debug parameters among the recorded debug parameters, and wherein the selected target image has the highest clarity in its corresponding instance; auto-adjusting current debug parameters based on the most frequently used debug parameter; debugging images currently acquired by using the adjusted debug parameters to obtain debugged images; selecting a new target image with the highest clarity from the debugged images; and identifying whether the new target image satisfies an unlocking condition, and if so, unlocking a screen of the electronic terminal. counting recorded debug parameters used for selecting target images in the most recent N instances, to determine a most frequently used debug parameter, wherein N is a natural number, wherein each of the target images is selected in a corresponding instance of the most recent N instances by using corresponding debug parameters among the recorded debug parameters, and wherein the selected target image has the highest clarity in its corresponding instance; auto-adjusting current debug parameters based on the most frequently used debug parameter; debugging images currently acquired by using the adjusted debug parameters to obtain debugged images; selecting a new target image with the highest clarity from the debugged images; and identifying whether the new target image satisfies an unlocking condition, and if so, unlocking a screen of the electronic terminal.
A method for controlling a wind farm electrical power system, wherein the wind farm electrical power system includes a controller, a plurality of wind turbines electrically connected to an electrical grid through a point of interconnection, and wherein each wind turbine includes a voltage regulator, the method comprising: receiving, via the controller, one or more electrical signals associated with the point of interconnection for a frequency domain; estimating, via an estimator of the controller, a voltage sensitivity of the electrical grid using the one or more electrical signals; and, dynamically controlling a voltage of the wind farm electrical power system at the point of interconnection based on the voltage sensitivity; wherein the one or more electrical signals comprise at least one of phase voltage, phase current, active power and reactive power at the point of interconnection; and wherein estimating the voltage sensitivity of the electrical grid using the one or more electrical signals further comprises: modeling, via the controller, the electrical grid as a linear time-invariant system for the frequency domain; monitoring the frequency domain for perturbations; determining whether the perturbations correspond to the wind farm electrical power system or to neighboring wind farm electrical power systems; and, removing perturbations corresponding to neighboring wind farm electrical power systems to decouple an effect of the perturbations on the voltage sensitivity. receiving, via the controller, one or more electrical signals associated with the point of interconnection for a frequency domain; estimating, via an estimator of the controller, a voltage sensitivity of the electrical grid using the one or more electrical signals; and, dynamically controlling a voltage of the wind farm electrical power system at the point of interconnection based on the voltage sensitivity; wherein the one or more electrical signals comprise at least one of phase voltage, phase current, active power and reactive power at the point of interconnection; and wherein estimating the voltage sensitivity of the electrical grid using the one or more electrical signals further comprises: modeling, via the controller, the electrical grid as a linear time-invariant system for the frequency domain; monitoring the frequency domain for perturbations; determining whether the perturbations correspond to the wind farm electrical power system or to neighboring wind farm electrical power systems; and, removing perturbations corresponding to neighboring wind farm electrical power systems to decouple an effect of the perturbations on the voltage sensitivity. modeling, via the controller, the electrical grid as a linear time-invariant system for the frequency domain; monitoring the frequency domain for perturbations; determining whether the perturbations correspond to the wind farm electrical power system or to neighboring wind farm electrical power systems; and, removing perturbations corresponding to neighboring wind farm electrical power systems to decouple an effect of the perturbations on the voltage sensitivity.
An internal combustion engine using at least one cylinder in a plurality of cylinders as an EGR exclusive cylinder, comprising: an intercooler provided in an intake passage of the internal combustion engine; an upstream-side EGR passage which connects an exhaust port of the EGR exclusive cylinder and the intake passage on the upstream of the intercooler; and a downstream-side EGR passage which connects the exhaust port of the EGR exclusive cylinder and the intake passage on the downstream of the intercooler, wherein lengths of the upstream-side EGR passage and the downstream-side EGR passage are designed such that, assuming that a path from the exhaust port to an intake port of the EGR exclusive cylinder via the upstream-side EGR passage is a first path and a path from the exhaust port to the intake port via the downstream-side EGR passage is a second path, a path difference between the first path and the second path generates a phase difference of 160° to 200° between exhaust gas pulsation via the first path and the exhaust gas pulsation via the second path. an intercooler provided in an intake passage of the internal combustion engine; an upstream-side EGR passage which connects an exhaust port of the EGR exclusive cylinder and the intake passage on the upstream of the intercooler; and a downstream-side EGR passage which connects the exhaust port of the EGR exclusive cylinder and the intake passage on the downstream of the intercooler, wherein
Dual-flow collective duct kit assembly extending over a plurality of stories of a building comprising at least one means for discharging fumes, which discharge means is introduced into an outer structure consisting of a plurality of rigid tubes or flexible and rigid tubes (7a, 7b, 7c) interlocked into a plurality of rigid elements comprising spigots fixed either in a duct or a service shaft or to a face of the building, this outer structure ending at its lower end with a siphon and at its upper end with a terminal which is provided with ports for discharge of fumes and ports for admission of combustion air and is rigidly connected to the last rigid tube by interlocking, said fume discharge means comprising a plurality of individual flexible ducts, each flexible duct connecting each fume discharge port of the terminal to the fume discharge duct of a combustion apparatus installed near at least one port and a connection duct, the space between the individual flexible ducts and the outer structure serving to supply combustion air to the combustion appliances.
Drive mechanism for use in a drug delivery device having a cylindrical cartridge, the mechanism comprising a base element, a toothed piston rod, which consists of a first rigid rod piece comprising a circular pressure foot and several further rigid rod pieces and which is guided within and movable relative to the base portion, and a drive gear having a pinion, which is rotatably held in the base element and in meshed engagement with the toothed piston rod, wherein the toothed piston rod comprises multiple rigid rod pieces which are connected by hinges, characterized in that the rigid rod pieces comprise a flat plate provided with a straight toothed rack, wherein each of the further rigid rod pieces consists of the flat plate provided with the straight toothed rack and one flange located on the opposite side of the straight toothed rack, and the flat plate together with the straight toothed rack is located offset from the center of the pressure foot, and the outer dimensions of the rigid rod pieces are adapted to the inner dimensions of the cartridge such that each of the further rigid rod pieces is guided within the cartridge by the two axially extending edges of the flange and by two axially extending edges of the flat plate, and the end faces of the rigid rod pieces are planar and, when the flexible piston rod is straightened, the adjacent faces of the rigid rod pieces abut each other.
An instrument for use in cartilage removal, the instrument comprising: an elongate body having a first end and a longitudinal axis having a longitudinal direction; and, a cartilage removal portion coupled to the elongate body at the first end, the cartilage removal portion including a plurality of serrated blades (110a-110i) substantially perpendicular to the longitudinal axis and adapted for removing material while moving in the longitudinal direction, wherein each serrated blade has a circular plate, a centroid thereof located along the longitudinal axis, and a plurality of teeth arranged around a respective circumference thereof so that the teeth of a first one of the serrated blades are rotationally staggered with respect to the teeth of a second one of the serrated blades. an elongate body having a first end and a longitudinal axis having a longitudinal direction; and, a cartilage removal portion coupled to the elongate body at the first end, the cartilage removal portion including a plurality of serrated blades (110a-110i) substantially perpendicular to the longitudinal axis and adapted for removing material while moving in the longitudinal direction, wherein each serrated blade has a circular plate, a centroid thereof located along the longitudinal axis, and a plurality of teeth arranged around a respective circumference thereof so that the teeth of a first one of the serrated blades are rotationally staggered with respect to the teeth of a second one of the serrated blades.
A speech valve for laryngectomy or tracheotomy patients having a cover element, a housing part and a filter, wherein the cover element comprises a piston-shaped closure element, and the closure element is connected to the cover element in an integral manner, wherein the cover element comprises an elastic material, wherein the closure element closes the speech valve at the distal end to the filter by deforming at least a region of the cover element.
A method of welding a precipitation-hardened superalloy article to produce a weld joint, the method comprising: - defining longitudinally multiple sections within a whole length of the weld joint to be produced; - melting superalloy material adjacent the weld joint to be produced by directing a power beam towards one of the multiple sections so defined and oscillating longitudinally the power beam within the section, wherein an intensity of the power beam and a frequency of oscillation of the power beam are selected such that to cause the superalloy material adjacent the weld joint to be produced to become uniformly heated and melt thereby producing the weld joint from the consolidation of the superalloy material so melted; and - solidifying the one of the multiple sections of the weld joint, comprising reducing gradually the intensity of the power beam while oscillating longitudinally the power beam within the section, wherein melting of the superalloy material to produce the weld joint and solidifying the weld joint is performed separately for different sections of the weld joint to be produced. - defining longitudinally multiple sections within a whole length of the weld joint to be produced; - melting superalloy material adjacent the weld joint to be produced by directing a power beam towards one of the multiple sections so defined and oscillating longitudinally the power beam within the section, wherein an intensity of the power beam and a frequency of oscillation of the power beam are selected such that to cause the superalloy material adjacent the weld joint to be produced to become uniformly heated and melt thereby producing the weld joint from the consolidation of the superalloy material so melted; and - solidifying the one of the multiple sections of the weld joint, comprising reducing gradually the intensity of the power beam while oscillating longitudinally the power beam within the section,