mhurhangee/patent-ind-claim-en huggingface dataset:
Agent for use on body surfaces for disinfection and for destroying bacterial metabolic products, containing at least one percarboxylic acid together with a stabilising agent in aqueous solution, characterised in that the stabilising agent is polyvinylpyrrolidone (PVP).
A method for determining coordinate positions of light-emitting particles that label at least one component of a sample specimen using a light microscope , the method comprising: activating a subset of the light-emitting particles by illuminating the sample with an activation light beam that stochastically activates the subset of light-emitting particles; capturing a series of images of the light emitted from the subset of particles illuminated with an excitation light beam for the illumination pattern in different positions within the sample forming a three-dimensional structured illumination pattern; generating a resolved image of the light-emitting particles from the series of images ; and repeatedly activating, capturing and generating to obtain a number of resolved images that are processed to obtain a super-resolution image of the at least one component; wherein generating the resolved image further comprises: summing the series of images to generate a summed image of the series of images of each subset of particles; filtering the summed image to generate a filtered image ; determining centroid coordinates for each subset of particles in the filtered image ; and resolving the centroid coordinates to generate the resolved image. activating a subset of the light-emitting particles by illuminating the sample with an activation light beam that stochastically activates the subset of light-emitting particles; capturing a series of images of the light emitted from the subset of particles illuminated with an excitation light beam for the illumination pattern in different positions within the sample forming a three-dimensional structured illumination pattern; generating a resolved image of the light-emitting particles from the series of images ; and repeatedly activating, capturing and generating to obtain a number of resolved images that are processed to obtain a super-resolution image of the at least one component; wherein generating the resolved image further comprises: summing the series of images to generate a summed image of the series of images of each subset of particles; filtering the summed image to generate a filtered image ; determining centroid coordinates for each subset of particles in the filtered image ; and resolving the centroid coordinates to generate the resolved image. summing the series of images to generate a summed image of the series of images of each subset of particles; filtering the summed image to generate a filtered image ; determining centroid coordinates for each subset of particles in the filtered image ; and resolving the centroid coordinates to generate the resolved image.
A method for tag identification, the method comprising: receiving a stream of radio-frequency identification, RFID, tags, wherein each RFID tag is associated with a respective article; receiving first positional data from a first sensor associated with a user; receiving second positional data from a second sensor associated with the user and located separate from the first sensor; and determining an intended RFID tag from amongst the stream of RFID tags based upon the first positional data and the second positional data. receiving a stream of radio-frequency identification, RFID, tags, wherein each RFID tag is associated with a respective article; receiving first positional data from a first sensor associated with a user; receiving second positional data from a second sensor associated with the user and located separate from the first sensor; and determining an intended RFID tag from amongst the stream of RFID tags based upon the first positional data and the second positional data.
A low refractive layer satisfying the following formula 1: 0.5 ≥ Δ b * = b * 1 − b * 0 in the formula 1, b* 0 is a b* value in a L*a*b* color coordinate system as defined by the International Commission on Illumination as to the low refractive layer; and b* 1 is a b* value in a L*a*b* color coordinate system as measured in the same manner as a method for measuring b* 0 as to the film prepared by immersing the low refractive layer for 2 minutes in 10 wt% sodium hydroxide aqueous solution heated to 30°C, washing the immersed layer with water, wiping off moisture, followed by immersing the wiped layer for 30 seconds in 10 wt% sodium hydroxide aqueous solution heated to 55°C, washing it with water and wiping off moisture, wherein the low refractive layer is a layer exhibiting a refractive index of 1.2 to 1.6, and wherein the low refractive layer includes a photocured product obtained by photo-curing a photocurable coating composition comprising a photopolymerizable compound, a fluorine-based compound containing -O-CF 2 CF 2 -O-CF 3 , and a polysilsesquioxane substituted with at least one reactive functional group. b* 0 is a b* value in a L*a*b* color coordinate system as defined by the International Commission on Illumination as to the low refractive layer; and b* 1 is a b* value in a L*a*b* color coordinate system as measured in the same manner as a method for measuring b* 0 as to the film prepared by immersing the low refractive layer for 2 minutes in 10 wt% sodium hydroxide aqueous solution heated to 30°C, washing the immersed layer with water, wiping off moisture, followed by immersing the wiped layer for 30 seconds in 10 wt% sodium hydroxide aqueous solution heated to 55°C, washing it with water and wiping off moisture, wherein the low refractive layer is a layer exhibiting a refractive index of 1.2 to 1.6, and wherein the low refractive layer includes a photocured product obtained by photo-curing a photocurable coating composition comprising a photopolymerizable compound, a fluorine-based compound containing -O-CF 2 CF 2 -O-CF 3 , and a polysilsesquioxane substituted with at least one reactive functional group.
A clamping system for making and breaking threaded connections between a first tubular and a second tubular , the system comprising: a clamp assembly for gripping and rotating the first tubular relative to the second tubular , the assembly having a central axis and comprising: a first cam gear configured to rotate about the central axis and having a radially inner surface comprising a plurality of circumferentially adjacent concave recesses defining a plurality of cam surfaces ; a first plurality of clamp members , wherein each clamp member of the first plurality of clamp members is disposed in one recess of the first cam gear ; a torque gear configured to rotate about the central axis; wherein each clamp member is pivotally coupled to the torque gear ; wherein each clamp member is configured to pivot between a withdraw position radially spaced apart from the first tubular and a gripping position engaging the first tubular. a first cam gear configured to rotate about the central axis and having a radially inner surface comprising a plurality of circumferentially adjacent concave recesses defining a plurality of cam surfaces ; a first plurality of clamp members , wherein each clamp member of the first plurality of clamp members is disposed in one recess of the first cam gear ; a torque gear configured to rotate about the central axis; wherein each clamp member is pivotally coupled to the torque gear ; wherein each clamp member is configured to pivot between a withdraw position radially spaced apart from the first tubular and a gripping position engaging the first tubular.
Insulation system for covering a façade of a building consisting of at least one insulation element , at least one mechanical fastener , which fastener fixes the insulation element to the façade of the building, and a rendering system being arranged on the outer surface of the insulation element whereby - the insulation element has at least a first and a second layer being connected to each other; - the first layer being directed to the façade having a bulk density being lower than the bulk density of the second layer ; - at least one layer is made of mineral fibres, especially stone wool fibres and a binding agent, or of cellular plastic, especially expanded polystyrene (EPS), wherein the insulation element has a third layer made of mineral fibres and a binding agent, the third layer having a high receptiveness and/or adhesion for the rendering system without using any surface primer, coating and/or an additive due to a homogeneous composite achieved by mixing the fibres with aerogel particulate material as a suspension in an air flow, which third layer has a bulk density being higher than the bulk density of the second layer and wherein the adhesion between the third layer and the rendering system has a bond strength between 0,010 N/mm 2 and 0,080 N/mm 2 , especially between 0,010 N/mm 2 and 0,030 N/mm 2 , preferably between 0,015 N/mm 2 and 0,025 N/mm 2 , for example 0,020 N/mm 2 . - the insulation element has at least a first and a second layer being connected to each other; - the first layer being directed to the façade having a bulk density being lower than the bulk density of the second layer ; - at least one layer is made of mineral fibres, especially stone wool fibres and a binding agent, or of cellular plastic, especially expanded polystyrene (EPS),
A method comprising: determining , by one or more processors, a set of routes from a start location to an end location, each route of the set of routes comprising one or more portions; for each given route of the set of routes, determining , by the one or more processors, a total motion sickness value based on a sway motion sickness value relating to a lateral acceleration of a vehicle, a surge motion sickness value relating to a fore-aft acceleration of the vehicle, and a heave motion sickness value relating to a vertical acceleration of the vehicle for each of the one or more portions of the given route, wherein the total motion sickness value for a route reflects a likelihood that a user will experience motion sickness while in the vehicle along the route; selecting , by the one or more processors, a first route of the set of routes based on the total motion sickness value of each route of the set of routes; and maneuvering , by the one or more processors, the vehicle according to the first route. determining , by one or more processors, a set of routes from a start location to an end location, each route of the set of routes comprising one or more portions; for each given route of the set of routes, determining , by the one or more processors, a total motion sickness value based on a sway motion sickness value relating to a lateral acceleration of a vehicle, a surge motion sickness value relating to a fore-aft acceleration of the vehicle, and a heave motion sickness value relating to a vertical acceleration of the vehicle for each of the one or more portions of the given route, wherein the total motion sickness value for a route reflects a likelihood that a user will experience motion sickness while in the vehicle along the route; selecting , by the one or more processors, a first route of the set of routes based on the total motion sickness value of each route of the set of routes; and maneuvering , by the one or more processors, the vehicle according to the first route.
Method for heating a flowing glass melt in a feeder channel encased by side walls and a ceiling , where a plurality of fuel lances , arranged with spacing from one another in the flow direction of the glass melt , and oxidant lances open into said channel above the glass melt , where fuel and oxidant, respectively, are supplied through said lances and reacted with one another in the feeder channel , characterized in that for the combustion of the fuel with the oxidant, at each fuel lance a fuel material jet is generated which enters the feeder channel substantially laminarly and is reacted with oxidant present in the feeder channel to form respectively a flame .
A metathesis process for producing propylene comprising: providing, as a metathesis catalyst, an amorphous mesoporous silica foam impregnated with metal oxides, where the metathesis catalyst has a pore size distribution of at least 3 nm to 40 nm, a total pore volume of at least 0.700 cm 3 /g, and a surface area of 400 to 500 m 2 /g; and producing a product stream comprising propylene by contacting a feed stream comprising butene with the metathesis catalyst. providing, as a metathesis catalyst, an amorphous mesoporous silica foam impregnated with metal oxides, where the metathesis catalyst has a pore size distribution of at least 3 nm to 40 nm, a total pore volume of at least 0.700 cm 3 /g, and a surface area of 400 to 500 m 2 /g; and producing a product stream comprising propylene by contacting a feed stream comprising butene with the metathesis catalyst.
A hybrid power pack, comprising: a first storage component generating a first DC output voltage and a first DC output current; a battery management system coupled to the first storage component via a first unidirectional switch to provide a charging path for the first storage component; an inout port connected to the battery management system ; a second unidirectional switch coupling the inout port with the first storage component to provide a discharging path for the first storage component; a second storage component generating a second DC output voltage and a second DC output current, wherein the second storage component is coupled to the inout port via a bidirectional switch to provide a charging path as well as a discharging path for the second storage component; a controller cooperating with the battery management system , the bidirectional switch and the inout port to selectively provide, to a load connected to the inout port , a sustained DC power from the first storage component, the second storage component or from both storage components simultaneously; and a unipolar transistor connected to a ground terminal, the inout port and the controller , and configured to disconnect said storage components from the ground terminal based on an activation signal received from the controller . a first storage component generating a first DC output voltage and a first DC output current; a battery management system coupled to the first storage component via a first unidirectional switch to provide a charging path for the first storage component; an inout port connected to the battery management system ; a second unidirectional switch coupling the inout port with the first storage component to provide a discharging path for the first storage component; a second storage component generating a second DC output voltage and a second DC output current, wherein the second storage component is coupled to the inout port via a bidirectional switch to provide a charging path as well as a discharging path for the second storage component; a controller cooperating with the battery management system , the bidirectional switch and the inout port to selectively provide, to a load connected to the inout port , a sustained DC power from the first storage component, the second storage component or from both storage components simultaneously; and a unipolar transistor connected to a ground terminal, the inout port and the controller , and configured to disconnect said storage components from the ground terminal based on an activation signal received from the controller .
A method for sensing light, comprising the steps of: receiving light in a light sensitive element and generating a signal indicative of the amount of light received by generating a stream of pulses of which the temporal density of pulses is indicative of the amount of light received; operating a display with at least one sub-frame having a duty cycle to display information with a brightness dependent on the duty cycle, wherein the duty cycle includes a first portion (a) in which the display is operated to emit light and a second portion (b) in which the display is operated not to emit light; sensing the light during the at least one sub-frame by counting the pulses generated during the at least one sub-frame; sensing the light during an observation window by another counting of the pulses generated during the observation window, wherein the observation window is determined in dependence on the duty cycle such that, when the duty cycle has a first rate lower than a predetermined rate, the observation window is determined to be active during the first portion of the duty cycle , and when the duty cycle has a second rate higher than the predetermined rate, the observation window is determined to be active during the second portion of the duty cycle ; and calculating a value indicating the amount of received ambient light from the counting of the pulses and the other counting of the pulses. receiving light in a light sensitive element and generating a signal indicative of the amount of light received by generating a stream of pulses of which the temporal density of pulses is indicative of the amount of light received; operating a display with at least one sub-frame having a duty cycle to display information with a brightness dependent on the duty cycle, wherein the duty cycle includes a first portion (a) in which the display is operated to emit light and a second portion (b) in which the display is operated not to emit light; sensing the light during the at least one sub-frame by counting the pulses generated during the at least one sub-frame; sensing the light during an observation window by another counting of the pulses generated during the observation window, wherein the observation window is determined in dependence on the duty cycle such that, when the duty cycle has a first rate lower than a predetermined rate, the observation window is determined to be active during the first portion of the duty cycle , and when the duty cycle has a second rate higher than the predetermined rate, the observation window is determined to be active during the second portion of the duty cycle ; and calculating a value indicating the amount of received ambient light from the counting of the pulses and the other counting of the pulses.
An assembly formed by a length of cable tray of wire and a device for electrical connection in which the electrical connection device is a device for making an equipotential connection, comprising an electrically conducting rigid body having at least two accommodations each with a bottom configured to receive a wire characterized in that the accommodations are each provided with a clamping screw for clamping a wire against the bottom of the corresponding accommodation, and in that for each accommodation the body has a base from which extend two branches , the bottom of the accommodation being located against the base and the accommodation extending between the two branches , in that each branch has an inside face facing opposite the other branch, the two inside faces being tapped so as to be able to receive between them the corresponding clamping screw , and in that a section of a wire of the length of cable tray of wire is disposed in an accommodation between a bottom and a clamping screw .
Method for operating an electrical control device on the basis of licence information stored on an exchangeable storage medium , wherein the method comprises the following steps carried out by means of the control device : - reading out an exchangeable storage medium identification of the exchangeable storage medium , - reading a licence file stored on the exchangeable storage medium , - extracting a licence file identification from the licence file read, - comparing the licence file identification with the exchangeable storage medium identification, - if the licence file identification corresponds to the exchangeable storage medium identification, - extracting licence information from the licence file and operating the control device in a manner dependent on the licence information, and - storing the licence file identification and the licence information in the control device , and - if no licence file is stored on the exchangeable storage medium , - comparing the exchangeable storage medium identification with a licence file identification stored in the control device , and - if the licence file identification stored in the control device corresponds to the exchangeable storage medium identification, generating a licence file on the exchangeable storage medium , wherein the generated licence file contains the licence file identification stored in the control device and the licence information stored in the control device . - reading out an exchangeable storage medium identification of the exchangeable storage medium , - reading a licence file stored on the exchangeable storage medium , - extracting a licence file identification from the licence file read, - comparing the licence file identification with the exchangeable storage medium identification, - if the licence file identification corresponds to the exchangeable storage medium identification, - extracting licence information from the licence file and operating the control device in a manner dependent on the licence information, and - storing the licence file identification and the licence information in the control device , and - if no licence file is stored on the exchangeable storage medium , - comparing the exchangeable storage medium identification with a licence file identification stored in the control device , and - if the licence file identification stored in the control device corresponds to the exchangeable storage medium identification, generating a licence file on the exchangeable storage medium , wherein the generated licence file contains the licence file identification stored in the control device and the licence information stored in the control device .
Method for generating a predetermined light distribution on a roadway by means of a motor vehicle headlamp, wherein at least one modulated laser beam is directed via at least one beam deflection means onto a light converter , and the luminous image produced on the light converter is directed onto the roadway, wherein the laser beams of a first group of at least two laser light sources are directed via the beam deflection means onto the light converter to generate a first group of at least two substantially horizontal light bands positioned one above the other, characterised in that the laser beams of a further, second group of at least two laser light sources are directed via the beam deflection means onto the light converter to generate a second group of at least two substantially horizontal light bands positioned one above the other, wherein light bands of the first group and light bands of the second group overlap one another on the light converter .