mhurhangee/patent-ind-claim-en huggingface dataset:
A connected device comprising at least one sensor adapted to measure at least a physical quantity and to report a measure of this physical quantity to a remote device , the at least one sensor system providing an output Z which is then digitized in order to provide an output signal Y comprising a first and a second component, the first component being representative of the measured physical quantity X and the second component being representative of the structural noise R introduced by the at least one sensor , wherein the connected device also comprises a noise generator configured to: - generate using as an input at least one parameter representative of the structural noise R a blurring noise V which is uncorrelated with said structural noise R; - combine the digital output signal Y with the blurring noise V in order to generate a signal Y'; - transmit signal Y' to the remote device , and wherein the blurring noise V is generated using a distribution depending on the minimum r_min and maximum r_max values of the structural noise R in order to have the same order of magnitude as the structural noise R. - generate using as an input at least one parameter representative of the structural noise R a blurring noise V which is uncorrelated with said structural noise R; - combine the digital output signal Y with the blurring noise V in order to generate a signal Y'; - transmit signal Y' to the remote device ,
Stamp , comprising at least a stamping component and a stamping insert , wherein the stamping component is formed of a top part and a bottom part with a cushion-receiving element and the stamping insert is connected to the top part via a reversing mechanism preferably having a slide track in the bottom part so as to move synchronously and the stamping insert is mounted via a continuous axle or trunnion or axle element in an axle bearing element , wherein in the resting position a text plate and/or MB unit (mounted band unit) mounted on the stamping insert butts against an ink cartridge with pad soaked with stamp ink in the cushion-receiving element , and in a stamping process for producing a stamp impression in a stamp position the stamping insert with the text plate and/or MB unit can be shifted by the reversing mechanism into a stamping position, characterized in that the axle bearing element can be inserted and fastened, in particular latched, in the top part via guide webs , wherein a locking head for fixation of a stamp position is connected to the axle bearing element via an elastically deformable connecting web .
A method for whole slide imaging of biological samples, comprising: acquiring, during a first scan, a first plurality of registered images of a sample , wherein each image in the first plurality of images corresponds to a different of M spectral bands of emission light from the sample; acquiring, during a second scan, a second plurality of registered images of the sample, wherein each image in the second plurality of images corresponds to a different of N spectral bands of emission light from the sample, wherein the M spectral bands and the N spectral bands have a spectral band that is shared wherein the shared spectral band is either identical in spectral properties or not identical in spectral properties but signals in the shared spectral band respond to the same stain in the biological sample, wherein the other spectral bands differ; and using an electronic processor to: align the first and second pluralities of images based on information from a first image from the first plurality of images and a second image from the second plurality of images, wherein the first and second images correspond to the shared spectral band; and combine at least some members of the first plurality of images and at least some members of the second plurality of images to form a spatially registered multispectral image stack. acquiring, during a first scan, a first plurality of registered images of a sample , wherein each image in the first plurality of images corresponds to a different of M spectral bands of emission light from the sample; acquiring, during a second scan, a second plurality of registered images of the sample, wherein each image in the second plurality of images corresponds to a different of N spectral bands of emission light from the sample, wherein the M spectral bands and the N spectral bands have a spectral band that is shared wherein the shared spectral band is either identical in spectral properties or not identical in spectral properties but signals in the shared spectral band respond to the same stain in the biological sample, wherein the other spectral bands differ; and using an electronic processor to: align the first and second pluralities of images based on information from a first image from the first plurality of images and a second image from the second plurality of images, wherein the first and second images correspond to the shared spectral band; and combine at least some members of the first plurality of images and at least some members of the second plurality of images to form a spatially registered multispectral image stack. align the first and second pluralities of images based on information from a first image from the first plurality of images and a second image from the second plurality of images, wherein the first and second images correspond to the shared spectral band; and combine at least some members of the first plurality of images and at least some members of the second plurality of images to form a spatially registered multispectral image stack.
A memory cell formed of an insulated MOS transistor having a drain , a source , and a bulk region coated with an insulated gate , wherein the bulk region is divided across its thickness in two different adjacent regions of opposite conductivity types extending parallel to the gate plane, the bulk region closest to the gate having a conductivity type opposite to that of the drain/source, and wherein the bulk region closest to the gate having a thickness of 5 to 50 nm, and a doping level smaller than 10 16 at./cm 3 .
A coating composition comprising a polymer, wherein the polymer comprises, as polymerization units, based on the total weight of the polymer: (a) from 45 wt% to 85 wt% of ethyl ester of acrylic acid; (b) from 15 wt% to 54 wt % of at least one itaconic acid ester characterized by the following formula: wherein R 1 and R 2 are separately hydrogen atom or alkyl group having 1 or 2 carbon atoms, and when either R 1 or R 2 is hydrogen atom the other is not hydrogen atom; and (c) optionally an ethylenically unsaturated monomer having at least one functional group selected from carboxyl group, carboxylic anhydride group, hydroxyl group, amide group, sulfonic acid group or phosphate group; and the weight of sum of (a) and (b) is 65 % or more based on the total weight of the polymer. (a) from 45 wt% to 85 wt% of ethyl ester of acrylic acid; (b) from 15 wt% to 54 wt % of at least one itaconic acid ester characterized by the following formula: wherein R 1 and R 2 are separately hydrogen atom or alkyl group having 1 or 2 carbon atoms, and when either R 1 or R 2 is hydrogen atom the other is not hydrogen atom; and (c) optionally an ethylenically unsaturated monomer having at least one functional group selected from carboxyl group, carboxylic anhydride group, hydroxyl group, amide group, sulfonic acid group or phosphate group; and
An air conditioner comprising: a compressor configured to have an inlet through which a refrigerant is sucked in, the sucked refrigerant being compressed by the compressor , and an outlet through which the compressed refrigerant is discharged; a four-way valve configured to switch flow paths in a cooling operation and a heating operation, the four-way valve having a valve body , a D port protruding from the valve body in a first direction to be connected to the outlet , and an S port protruding from the valve body in a second direction, which is opposite of the first direction, to be connected to the inlet ; and a compressor pipe having a discharging pipe to connect the outlet and the D port , and a sucking pipe to connect the inlet and the S port , characterised in that one of the discharging pipe and the sucking pipe has only two curved portions and the other one of the discharging pipe and the sucking pipe has only one curved portion . a compressor configured to have an inlet through which a refrigerant is sucked in, the sucked refrigerant being compressed by the compressor , and an outlet through which the compressed refrigerant is discharged; a four-way valve configured to switch flow paths in a cooling operation and a heating operation, the four-way valve having a valve body , a D port protruding from the valve body in a first direction to be connected to the outlet , and an S port protruding from the valve body in a second direction, which is opposite of the first direction, to be connected to the inlet ; and a compressor pipe having a discharging pipe to connect the outlet and the D port , and a sucking pipe to connect the inlet and the S port , characterised in that one of the discharging pipe and the sucking pipe has only two curved portions and the other one of the discharging pipe and the sucking pipe has only one curved portion .
A roof bar assembly comprising a bar and several feet for fastening the bar to the roof of a vehicle, the bar capable of being fastened in a longitudinal position in which the bar is parallel to a longitudinal axis of the vehicle or in a transverse position in which the bar is perpendicular to the longitudinal axis of the vehicle, the roof bar assembly comprising bracing means positioned between each foot and the bar which are configured so that in the transverse position, the distance between a fastening plate of the foot intended to be fastened to the roof and the bar is greater than the distance between the fastening plate of the foot and the bar in the longitudinal position, characterized in that the bracing means comprise a spacer positioned on the foot and an insert linked to the bar , the insert having a bore adapted to receive the spacer when the bar is in the longitudinal position, a first piercing opening into the bore to receive a screw for fastening the bar in the longitudinal position and a second through piercing whose diameter is smaller than that of the spacer to receive a screw for fastening the bar in the transverse position.
A method of manufacture of a molded article, comprising: (a) a step of blending 0.1 to 8 parts by mass of triazine based UV absorber to 100 parts by mass of an acrylic resin, the mixture of the acrylic resin and the triazine based UV absorber is molten and mixed/kneaded within a temperature range of from 200 to 260°C; and (b) a step of forming a molded article from said mixture of step (a); characterized in that the triazine based UV absorber is 2-(4,6-diphenyl-1,3,5-triazin-2-yl)-5-[2-(2-ethylhexanoyloxy)ethoxy]phenol; and the acrylic resin is a homopolymer of methyl methacrylate or a copolymer including at least 80 wt% of methyl methacrylate and an alkyl (meth)acrylate that includes a linear or branched alkyl group including 2 to 8 carbon atoms, and has a glass transition temperature determined according to the description of at least 80 °C. (a) a step of blending 0.1 to 8 parts by mass of triazine based UV absorber to 100 parts by mass of an acrylic resin, the mixture of the acrylic resin and the triazine based UV absorber is molten and mixed/kneaded within a temperature range of from 200 to 260°C; and (b) a step of forming a molded article from said mixture of step (a); the triazine based UV absorber is 2-(4,6-diphenyl-1,3,5-triazin-2-yl)-5-[2-(2-ethylhexanoyloxy)ethoxy]phenol; and the acrylic resin is a homopolymer of methyl methacrylate or a copolymer including at least 80 wt% of methyl methacrylate and an alkyl (meth)acrylate that includes a linear or branched alkyl group including 2 to 8 carbon atoms, and has a glass transition temperature determined according to the description of at least 80 °C.
An apparatus comprising: a surface acoustic wave 'SAW' sensor comprising: a piezoelectric substrate ; first and second interdigitating transistors over the piezoelectric substrate , the first interdigitating transistor configured to convert an input electrical signal into an acoustic wave, the second interdigitating transistor configured to convert the acoustic wave into an output electrical signal, the piezoelectric substrate configured to transport the acoustic wave; and a detection layer over the piezoelectric substrate and positioned at least partially between the first and second interdigitating transistors , the detection layer comprising (i) antibodies configured to bind to one or more biological analytes and (ii) a hydrogel layer over the antibodies , wherein: the hydrogel layer is configured to permit the one or more biological analytes to diffuse through the hydrogel layer and contact the antibodies , characterized in that the antibodies are configured to bind to one or more viruses; and the hydrogel layer comprises an agarose hydrogel, a polyacrylamide hydrogel, or a guar gum hydrogel. a surface acoustic wave 'SAW' sensor comprising: a piezoelectric substrate ; first and second interdigitating transistors over the piezoelectric substrate , the first interdigitating transistor configured to convert an input electrical signal into an acoustic wave, the second interdigitating transistor configured to convert the acoustic wave into an output electrical signal, the piezoelectric substrate configured to transport the acoustic wave; and a detection layer over the piezoelectric substrate and positioned at least partially between the first and second interdigitating transistors , the detection layer comprising (i) antibodies configured to bind to one or more biological analytes and (ii) a hydrogel layer over the antibodies , wherein: a piezoelectric substrate ; first and second interdigitating transistors over the piezoelectric substrate , the first interdigitating transistor configured to convert an input electrical signal into an acoustic wave, the second interdigitating transistor configured to convert the acoustic wave into an output electrical signal, the piezoelectric substrate configured to transport the acoustic wave; and a detection layer over the piezoelectric substrate and positioned at least partially between the first and second interdigitating transistors , the detection layer comprising (i) antibodies configured to bind to one or more biological analytes and (ii) a hydrogel layer over the antibodies , wherein: the hydrogel layer is configured to permit the one or more biological analytes to diffuse through the hydrogel layer and contact the antibodies , characterized in that the antibodies are configured to bind to one or more viruses; and the hydrogel layer comprises an agarose hydrogel, a polyacrylamide hydrogel, or a guar gum hydrogel.
A computer-implemented method for a mobile device, the method comprising: running (5-1) in the mobile device a remote tool for remote support for industrial automation devices; establishing (5-2, 5-7), by the mobile device, using the remote tool, a first connection to an industrial automation device and a second connection to a shared data storage; detecting (5-3) in the remote tool a user input triggering a test for the industrial automation device; causing sending (5-6) via the first connection, from the mobile device, at least a set of parameter values with an indication of the test to the industrial automation device the indication of the test being a set of instructions comprising at least instructions to back up existing parameters before the test is run and to restore the existing parameter after the test ends; receiving (5-9) in the mobile device a user input to start the test; causing sending (5-10), from the mobile device, via the first connection, a command to start to run the test to the industrial automation device; receiving (5-15) in the mobile device data from the industrial automation device via the first connection; and forwarding (5-16) by the mobile device the data to the shared data storage via the second connection. running (5-1) in the mobile device a remote tool for remote support for industrial automation devices; establishing (5-2, 5-7), by the mobile device, using the remote tool, a first connection to an industrial automation device and a second connection to a shared data storage; detecting (5-3) in the remote tool a user input triggering a test for the industrial automation device; causing sending (5-6) via the first connection, from the mobile device, at least a set of parameter values with an indication of the test to the industrial automation device the indication of the test being a set of instructions comprising at least instructions to back up existing parameters before the test is run and to restore the existing parameter after the test ends; receiving (5-9) in the mobile device a user input to start the test; causing sending (5-10), from the mobile device, via the first connection, a command to start to run the test to the industrial automation device; receiving (5-15) in the mobile device data from the industrial automation device via the first connection; and forwarding (5-16) by the mobile device the data to the shared data storage via the second connection.
A height measuring apparatus comprising a main body portion adapted for placement upon an object to be measured, and a movable portion which is connected and movable relative to the main body portion , wherein the movable portion comprises a laser source and a photo detector , the movable portion being movable so that the laser source can be orientated at a range of different angles relative to the main body portion and that a laser beam from the laser source can be directed to the ground when the main body portion is placed on the object to be measured, characterised in that the main body portion is provided with at least one tri-axial accelerometer being configured to measure the angular orientation of the main body portion.
A semiconductor photomultiplier comprising: an array of interconnected microcells, wherein the array comprises a first type of microcell having a first junction region of a first geometric shape and a second type of microcell having a second junction region of a second geometric shape, wherein the second type of microcell is located at second locations of the array that are corner locations of an outer periphery of the array and the first type of microcell is located at first locations of the array that are not located at corner locations of the outer periphery of the array, wherein the second geometric shape of the second junction regions defines an arcuate shape and wherein the first geometric shape of the first junction regions defines a non-arcuate shape or an arcuate shape with a radius smaller than the second geometric shape. an array of interconnected microcells, wherein the array comprises a first type of microcell having a first junction region of a first geometric shape and a second type of microcell having a second junction region of a second geometric shape, wherein the second type of microcell is located at second locations of the array that are corner locations of an outer periphery of the array and the first type of microcell is located at first locations of the array that are not located at corner locations of the outer periphery of the array, wherein the second geometric shape of the second junction regions defines an arcuate shape and wherein the first geometric shape of the first junction regions defines a non-arcuate shape or an arcuate shape with a radius smaller than the second geometric shape.
Method for measuring thermo-optical characteristics of particles in a solution comprising the steps of: a) providing a sample solution comprising marked particles in a solution; b) providing a temperature control system for creating a temperature gradient within said sample solution by contact heating, electrical heating and/or cooling; c) detecting the marked particles at a first time; d) creating a temperature increase of from 2K to 20 K and a temperature gradient of 0.001 K/μm to 20 K/μm within the sample solution by means of the temperature control system; e) detecting the marked particles in the sample solution at a, preferably predetermined, second time and/or at a predetermined location within the temperature gradient, and f) characterizing the particles based on said two detections. a) providing a sample solution comprising marked particles in a solution; b) providing a temperature control system for creating a temperature gradient within said sample solution by contact heating, electrical heating and/or cooling; c) detecting the marked particles at a first time; d) creating a temperature increase of from 2K to 20 K and a temperature gradient of 0.001 K/μm to 20 K/μm within the sample solution by means of the temperature control system; e) detecting the marked particles in the sample solution at a, preferably predetermined, second time and/or at a predetermined location within the temperature gradient, and f) characterizing the particles based on said two detections.
A method of producing a fiber, the method comprising discharge, from a spinneret, a spinning dope solution containing a fiber-forming polymer dissolved in a solvent, once allowing the solution to run in air, and then guiding the solution into a coagulation bath liquid to allow coagulation, wherein a gas-phase portion formed in a vertically downward direction from a discharge surface of the spinneret to a coagulation bath liquid surface has an air flow rate per unit time (Af) which satisfies, in relation to the amount of the solvent in the spinning dope solution per unit time (As) in the gas-phase-portion volume (Vh), the relational expression 0.0008 m 3 ≤ Af/(As/Vh) ≤ 0.0015 m 3 , and the hourly average of the absolute humidity at each of four points in an outer periphery of the spinneret in the gas-phase portion is not more than 20 g/m 3 , wherein the number of holes in the spinneret is not less than 2,000 and not more than 50,000.
A control system for controlling an aircraft, comprising an active inceptor; and a processing system having a first input configured to receive inputs (10a-10d) indicative of movement of the inceptor in a first axis and configured to control movement resistance of the active inceptor, and at least first and second outputs, each output being for controlling different aspects of an aircraft; wherein, in a first state, the processing system is configured to control only the first output based on the first input, in a second state the processing system is configured to control only the second output based on the first input; the first output controls ailerons of the aircraft to control roll of the aircraft, and the second output controls nose-wheel steering of the aircraft; and the movement resistance is dependent on at least the state of the processing system . an active inceptor; and a processing system having a first input configured to receive inputs (10a-10d) indicative of movement of the inceptor in a first axis and configured to control movement resistance of the active inceptor, and at least first and second outputs, each output being for controlling different aspects of an aircraft; wherein, in a first state, the processing system is configured to control only the first output based on the first input, in a second state the processing system is configured to control only the second output based on the first input; the first output controls ailerons of the aircraft to control roll of the aircraft, and the second output controls nose-wheel steering of the aircraft; and the movement resistance is dependent on at least the state of the processing system .