mhurhangee/ep-ind-claims huggingface dataset:
A method for replacing an existing bathtub with a shower, comprising: - a step consisting of removing the existing bathtub from its original location, - a step consisting of cutting out a single-piece shower basin structure, said basin comprising three side walls (22, 23, 24), a receiver, a horizontal cornice extending toward the outside of the upper end of the three side walls, and a horizontal front cornice all along the forward part of the basin situated at the height of the upper end of the receiver, at the dimensions of the original location of the bathtub so as to hide the entirety of said location both on the floor and against the walls of the bathroom, - a step consisting of connecting first water discharge means present on said structure to the existing water discharge means in the bathroom, - a step consisting of placing said single-piece structure in the location left vacant by the bathtub by using height-adjustable support means. - a step consisting of removing the existing bathtub from its original location, - a step consisting of cutting out a single-piece shower basin structure, said basin comprising three side walls (22, 23, 24), a receiver, a horizontal cornice extending toward the outside of the upper end of the three side walls, and a horizontal front cornice all along the forward part of the basin situated at the height of the upper end of the receiver, at the dimensions of the original location of the bathtub so as to hide the entirety of said location both on the floor and against the walls of the bathroom, - a step consisting of connecting first water discharge means present on said structure to the existing water discharge means in the bathroom, - a step consisting of placing said single-piece structure in the location left vacant by the bathtub by using height-adjustable support means.
An ultrasonic image display method, performed by a processor of an ultrasonic imaging apparatus, comprising: determining a reference point in an acquired ultrasonic image that includes a proximal carpal tunnel, wherein the reference point is selected among a plurality of landmark anatomical structures of the proximal carpal tunnel; identifying at least one anatomical structure of interest among the plurality of landmark anatomical structures based on a positional relationship with the reference point on the basis of the determined reference point; and displaying, on the ultrasonic image or parallel with the ultrasonic image, the identified anatomical structure of interest and information about the anatomical structure of interest, wherein the information about the anatomical structure of interest is information indicating the positional relationship between the anatomical structure of interest and the reference point, wherein the positional relationship with the reference point includes a distance value, a direction, and a natural language description indicating the distance value or the direction between the anatomical structure of interest and the reference point. determining a reference point in an acquired ultrasonic image that includes a proximal carpal tunnel, wherein the reference point is selected among a plurality of landmark anatomical structures of the proximal carpal tunnel; identifying at least one anatomical structure of interest among the plurality of landmark anatomical structures based on a positional relationship with the reference point on the basis of the determined reference point; and displaying, on the ultrasonic image or parallel with the ultrasonic image, the identified anatomical structure of interest and information about the anatomical structure of interest, wherein the information about the anatomical structure of interest is information indicating the positional relationship between the anatomical structure of interest and the reference point, wherein the positional relationship with the reference point includes a distance value, a direction, and a natural language description indicating the distance value or the direction between the anatomical structure of interest and the reference point.
A method of controlling a display of a portable electronic device, the method comprising: retrieving data which are indicative of a temperature variation (24, 26, 28) over the display; processing the retrieved data to generate a temperature chart for the display which provides a two-dimensional array of temperature values over the display, the temperature chart being indicative of a temperature profile which is spatially varying in a display plane; and controlling the display in a spatially varying manner in accordance with the generated temperature chart, wherein the retrieved data indicative of the temperature variation (24, 26, 28) comprise temperature data for at least one region of the display and information on a topology of the portable electronic device, and controlling the display comprises applying a color correction to image data to generate temperature-compensated image data based on both the generated temperature chart and the image data to compensate for temperature-induced color alterations, the color correction being spatially varying in accordance with the generated temperature chart, wherein the display is controlled to output the temperature-compensated image data. retrieving data which are indicative of a temperature variation (24, 26, 28) over the display; processing the retrieved data to generate a temperature chart for the display which provides a two-dimensional array of temperature values over the display, the temperature chart being indicative of a temperature profile which is spatially varying in a display plane; and controlling the display in a spatially varying manner in accordance with the generated temperature chart, wherein the retrieved data indicative of the temperature variation (24, 26, 28) comprise temperature data for at least one region of the display and information on a topology of the portable electronic device, and controlling the display comprises applying a color correction to image data to generate temperature-compensated image data based on both the generated temperature chart and the image data to compensate for temperature-induced color alterations, the color correction being spatially varying in accordance with the generated temperature chart, wherein the display is controlled to output the temperature-compensated image data.
A computing device implemented method for deploying a smart contract in a programmable blockchain network, the method comprising the steps of: a) inputting a plurality of instructions written in a programming language agnostic to the blockchain network, wherein the programming language is a traditional programming language which is not specifically designed for or tied to a blockchain network; b) initializing a software module comprising a predefined set of a plurality of special variable types which are not recognized by the programming language and which enables the deployment of the plurality of instructions in the blockchain network; c) defining a plurality of variables and declaring a plurality of variable types included in the plurality of instructions; d) defining a plurality of function names included in the plurality of instructions; e) defining a plurality of variables and declaring a plurality of variable types outputted by the plurality of instructions; f) converting the plurality of instructions comprising all defined variables and declared variable types to bytecode or operation code compatible with the blockchain network; g) generating the smart contract based on the bytecode or operation code; and h) deploying the generated smart contract in the blockchain network, $ wherein the predefined set of a plurality of special variable types can be used to declare the variable types. a) inputting a plurality of instructions written in a programming language agnostic to the blockchain network, wherein the programming language is a traditional programming language which is not specifically designed for or tied to a blockchain network; b) initializing a software module comprising a predefined set of a plurality of special variable types which are not recognized by the programming language and which enables the deployment of the plurality of instructions in the blockchain network; c) defining a plurality of variables and declaring a plurality of variable types included in the plurality of instructions; d) defining a plurality of function names included in the plurality of instructions; e) defining a plurality of variables and declaring a plurality of variable types outputted by the plurality of instructions; f) converting the plurality of instructions comprising all defined variables and declared variable types to bytecode or operation code compatible with the blockchain network; g) generating the smart contract based on the bytecode or operation code; and h) deploying the generated smart contract in the blockchain network, $
A combine side-shaking control system for use with a combine, comprising: a sieve for separating crop material from other materials; and a movable side-shaking mechanism coupled to the sieve and configured to move the sieve in a side-to-side motion; a first grain loss sensor configured to sense a first amount of grain loss from a first portion of the sieve; a second grain loss sensor spaced from the first grain loss sensor and configured to sense a second amount of grain loss from a second portion of the sieve; and a controller configured to: (i) receive a first grain loss value corresponding to the sensed first amount of grain loss and a second grain loss value corresponding to the sensed second amount of grain loss; and (ii) cause the side-shaking mechanism to control movement of the sieve in the side-to-side motion based on at least one of the received first grain loss value and the received second grain loss value; characterized in that the combine side-shaking control system comprises a comparator configured to compare the first grain loss value to the second grain loss value to obtain a grain loss difference value, and in that the controller is configured to cause the side-shaking mechanism to control movement of the sieve based on the grain loss difference value. a sieve for separating crop material from other materials; and a movable side-shaking mechanism coupled to the sieve and configured to move the sieve in a side-to-side motion; a first grain loss sensor configured to sense a first amount of grain loss from a first portion of the sieve; a second grain loss sensor spaced from the first grain loss sensor and configured to sense a second amount of grain loss from a second portion of the sieve; and a controller configured to: (i) receive a first grain loss value corresponding to the sensed first amount of grain loss and a second grain loss value corresponding to the sensed second amount of grain loss; and (ii) cause the side-shaking mechanism to control movement of the sieve in the side-to-side motion based on at least one of the received first grain loss value and the received second grain loss value; characterized in that the combine side-shaking control system comprises a comparator configured to compare the first grain loss value to the second grain loss value to obtain a grain loss difference value, and in that the controller is configured to cause the side-shaking mechanism to control movement of the sieve based on the grain loss difference value.
Method for controlling a disinfection system of a vehicle, - wherein the disinfection system has a first light source for an interior of the vehicle for generating radiation in the UV range, - wherein the first light source is designed to generate radiation in the UV-B and/or UV-C range, - wherein the disinfection system has a second light source for generating radiation in the UV-C range, - wherein the first light source is designed to generate radiation in the range of 100-300 nm, preferably 200-300 nm, and/or - wherein the second light source is designed to generate radiation in the range of 210-230 nm, preferably 222 nm, wherein in the method: - a controller of the disinfection system determines by means of at least one identification unit (7a, 7b), preferably a camera or a radar, whether passengers are in the vehicle, and - the controller switches on the first light source or the second light source depending on whether passengers are in the vehicle, - wherein, if no passengers are in the vehicle, the controller switches on the first light source for at least 6 seconds, and - wherein, if passengers are in the vehicle, the controller switches on the second light source for at least 2.5 seconds. - wherein the disinfection system has a first light source for an interior of the vehicle for generating radiation in the UV range, - wherein the first light source is designed to generate radiation in the UV-B and/or UV-C range, - wherein the disinfection system has a second light source for generating radiation in the UV-C range, - wherein the first light source is designed to generate radiation in the range of 100-300 nm, preferably 200-300 nm, and/or - wherein the second light source is designed to generate radiation in the range of 210-230 nm, preferably 222 nm, - a controller of the disinfection system determines by means of at least one identification unit (7a, 7b), preferably a camera or a radar, whether passengers are in the vehicle, and - the controller switches on the first light source or the second light source depending on whether passengers are in the vehicle, - wherein, if no passengers are in the vehicle, the controller switches on the first light source for at least 6 seconds, and - wherein, if passengers are in the vehicle, the controller switches on the second light source for at least 2.5 seconds.
A photometric flow cell comprising: a cell body (100, 200); an outlet port (101, 201); said outlet port (101, 201) contained within said cell body (100, 200); a first inlet port (102, 202) and a second inlet port (103, 203); said first inlet port (102, 202) and said second inlet port (103, 203) contained within said cell body (100, 200); a common inlet channel (104, 204) allowing the passage of fluids, said common inlet channel receiving fluids from said first inlet port (102, 202) or said second inlet port (103, 203); and said common inlet channel contained within said cell body (100, 200), characterized in that the outlet port (101, 201) has an internal diameter of 1.0 mm, the first inlet port (102, 202) has an internal diameter of 0.23 mm, the second inlet port (103, 203) has an internal diameter of 1.0 mm and the common inlet channel (104, 204) has an internal diameter of 0.56 mm and a length of 1.4 mm. a cell body (100, 200); an outlet port (101, 201); said outlet port (101, 201) contained within said cell body (100, 200); a first inlet port (102, 202) and a second inlet port (103, 203); said first inlet port (102, 202) and said second inlet port (103, 203) contained within said cell body (100, 200); a common inlet channel (104, 204) allowing the passage of fluids, said common inlet channel receiving fluids from said first inlet port (102, 202) or said second inlet port (103, 203); and said common inlet channel contained within said cell body (100, 200), characterized in that the outlet port (101, 201) has an internal diameter of 1.0 mm, the first inlet port (102, 202) has an internal diameter of 0.23 mm, the second inlet port (103, 203) has an internal diameter of 1.0 mm and the common inlet channel (104, 204) has an internal diameter of 0.56 mm and a length of 1.4 mm.
Clamping device for receiving and clamping a film roll, comprising a reel core and a film reel arranged on the reel core, wherein the clamping device is able to be adjusted from an open position in which the film roll is able to be inserted into the clamping device or is able to be removed from the clamping device, into a clamped position in which the film roll is clamped in the clamping device, wherein the clamping device comprises a spline shaft having receiving grooves arranged with displacement in the longitudinal direction at the same angular distance, a worm gear formed from a threaded ring and an adjusting nut, and clamping levers arranged with radial displacement at the same angular distance, wherein an output member of the worm gear interacts with the clamping levers in such a way that the clamping levers are supported in the clamping position of the clamping device, forming a clamping force on the base of the grooves of the spline shaft, and on the inner wall of the reel core, characterised in that the spline shaft has three receiving grooves arranged with 120° displacement in the longitudinal direction, with which three clamping levers arranged with 120° radial displacement engage, and the threaded ring has three groove-like bearing recesses arranged with 120° radial displacement, said recesses forming pivot bearings for the clamping lever, and the adjusting nut has groove-like adjustment recesses with 120° displacement on its outer periphery, with which the clamping levers engage.
Offshore installation comprising an underwater foundation structure, a construction placed on the foundation structure, a landing device for a boat, and a device for cathodic corrosion protection for the underwater foundation structure, the installation comprising at least two anodes arranged at a distance from one another, which anodes are each attached to an arm or a bracket of the foundation structure, the offshore installation being characterized in that - the arms or the brackets are each directly connected to the foundation structure below the water line, - the underwater foundation structure is designed as a monopile foundation and the arms or the brackets are attached directly to the outer wall of the monopile; and - at least two anodes, in relation to the circumference of the monopile, extend at an angular distance greater than or equal to 90° from one another. - the arms or the brackets are each directly connected to the foundation structure below the water line, - the underwater foundation structure is designed as a monopile foundation and the arms or the brackets are attached directly to the outer wall of the monopile; and - at least two anodes, in relation to the circumference of the monopile, extend at an angular distance greater than or equal to 90° from one another.
A method for the detection and/or identification and/or enumeration of at least one target microorganism in a sample liable to contain it, comprising the following steps: (a) providing a device for the detection and/or identification and/or enumeration of microorganisms comprising a porous support comprising culture medium powder with at least one antibiotic and/or at least one heat-sensitive compound such as an enzymatic or metabolic substrate, throughout its thickness, said porous support having been dry-impregnated throughout its thickness by said culture medium, (b) placing a sample in contact with the porous support, the culture medium being rehydrated by an aqueous sample or a suitable volume of liquid when the sample is not aqueous or is insufficiently aqueous, (c) incubating the device, (d) detecting and/or identifying and/or enumerating the colony or colonies of microorganisms within the porous support, when the microorganisms sought are present in the sample. (a) providing a device for the detection and/or identification and/or enumeration of microorganisms comprising a porous support comprising culture medium powder with at least one antibiotic and/or at least one heat-sensitive compound such as an enzymatic or metabolic substrate, throughout its thickness, said porous support having been dry-impregnated throughout its thickness by said culture medium, (b) placing a sample in contact with the porous support, the culture medium being rehydrated by an aqueous sample or a suitable volume of liquid when the sample is not aqueous or is insufficiently aqueous, (c) incubating the device, (d) detecting and/or identifying and/or enumerating the colony or colonies of microorganisms within the porous support, when the microorganisms sought are present in the sample.
A magnetic separation device comprising: at least one magnetic element configured to produce a magnetic field; and a first support portion (103, 201); and a base comprising a support structure and a pair of lateral support members at opposite ends of the support structure; wherein the base comprises a central support member extending between the pair of lateral support members from one end of the opposite ends of the support structure to the opposite end, along a length of the support structure, wherein the magnetic element is supported by the central support member of the base; and the central support member supports a plurality of magnetic elements oriented in a plurality of columns, each column defined by a separating axis; and the first support portion includes a threaded opening that extends entirely through the first support portion (103, 201), wherein the threaded opening is configured to threadingly receive a threaded portion of a container (501, 1001) to fixedly attach the container (501, 1001) to the first support portion in an aligned orientation with respect to a column of magnetic elements, wherein the threaded opening is configured to retain the container in the aligned orientation when inverting the magnetic separation device, wherein the first support portion (103, 201) is removably attached to the base. at least one magnetic element configured to produce a magnetic field; and a first support portion (103, 201); and a base comprising a support structure and a pair of lateral support members at opposite ends of the support structure; wherein the base comprises a central support member extending between the pair of lateral support members from one end of the opposite ends of the support structure to the opposite end, along a length of the support structure, wherein the magnetic element is supported by the central support member of the base; and the central support member supports a plurality of magnetic elements oriented in a plurality of columns, each column defined by a separating axis; and the first support portion includes a threaded opening that extends entirely through the first support portion (103, 201), wherein the threaded opening is configured to threadingly receive a threaded portion of a container (501, 1001) to fixedly attach the container (501, 1001) to the first support portion in an aligned orientation with respect to a column of magnetic elements, wherein the threaded opening is configured to retain the container in the aligned orientation when inverting the magnetic separation device, wherein the first support portion (103, 201) is removably attached to the base.