mhurhangee/patent-ind-claim-en huggingface dataset:
A glove for sensitizing touch perception, comprising: a sensitizing layer to be in contact with an object; and an external cover for fixing a hand to the sensitizing layer , for use in detecting minute irregularities of the object via the sensitizing layer by means of a hand inserted between the sensitizing layer and the external cover , wherein the sensitizing layer includes: a first film to be in contact with the object; a second film layered on the first film , and being adhered to the first film at a connected portion at a peripheral edge thereof; and a stopper formed on the inner side of the peripheral edge of the sensitizing layer by connection of the second film with the external cover , the stopper being in contact with a portion between the fingers of a hand, the fingers inserted between the second film and the external cover , characterized in that the glove comprises an air introduction opening for introducing air between the first film and the second film to allow the second film to slide relative to the first film ; the external cover and the second film of the sensitizing layer are connected to each other at the connected portion at the peripheral edge thereof; the external cover and the second film of the sensitizing layer are connected to each other at a partially connected portion so as to form the stopper . a first film to be in contact with the object; a second film layered on the first film , and being adhered to the first film at a connected portion at a peripheral edge thereof; and a stopper formed on the inner side of the peripheral edge of the sensitizing layer by connection of the second film with the external cover , the stopper being in contact with a portion between the fingers of a hand, the fingers inserted between the second film and the external cover , characterized in that the glove comprises an air introduction opening for introducing air between the first film and the second film to allow the second film to slide relative to the first film ; the external cover and the second film of the sensitizing layer are connected to each other at the connected portion at the peripheral edge thereof; the external cover and the second film of the sensitizing layer are connected to each other at a partially connected portion so as to form the stopper .
A method for manufacturing a strain gauge device , the method comprising: obtaining a first substrate including a first formable substrate film for accommodating electronic components, and printing by a printed electronics method a strain gauge on the first substrate , characterized in that the method comprises forming , by at least one of thermoforming, cold-forming, vacuum forming, pressure forming, or high pressure forming, the first substrate comprising the printed strain gauge to a three-dimensional shape, and subsequently, injection molding a molded material layer over the strain gauge , thereby embedding the strain gauge in the molded material layer . obtaining a first substrate including a first formable substrate film for accommodating electronic components, and printing by a printed electronics method a strain gauge on the first substrate , characterized in that the method comprises forming , by at least one of thermoforming, cold-forming, vacuum forming, pressure forming, or high pressure forming, the first substrate comprising the printed strain gauge to a three-dimensional shape, and subsequently, injection molding a molded material layer over the strain gauge , thereby embedding the strain gauge in the molded material layer .
An automated method to characterize and remove noise caused by pump pulses from data collected in a chromatography system comprising the steps of A. collecting data with an analytical instrument where said collected data contains pump pulse contamination; B. computing the power spectrum from said collected data; C. determining said fundamental frequency of pulses due to said pump from said power spectrum; D. constructing a filter to remove noise around said fundamental frequency; and E. filtering said collected data with said filter; characterized in that step C comprises the steps of C1. selecting a region of the power spectrum outside of the region wherein 1/f noise is present; C2. determining the frequency w m corresponding to the maximum power signal in said region; C3. analyzing the power value of the frequency at w m /2 and w m /3 to determine if there is a peak in the power spectrum at these frequencies; and C4. determining said fundamental frequency to be a. w m if there is no peak in the power signal at w m /2 or w m /3; or b. w m /3 if there is a peak in the power signal at w m /3, and therefore w m is a harmonic frequency; or c. w m /2 if there is a no peak in the power signal at w m /3 and a peak is present at w m /2, and therefore w m is a harmonic frequency. A. collecting data with an analytical instrument where said collected data contains pump pulse contamination; B. computing the power spectrum from said collected data; C. determining said fundamental frequency of pulses due to said pump from said power spectrum; D. constructing a filter to remove noise around said fundamental frequency; and E. filtering said collected data with said filter; C1. selecting a region of the power spectrum outside of the region wherein 1/f noise is present; C2. determining the frequency w m corresponding to the maximum power signal in said region; C3. analyzing the power value of the frequency at w m /2 and w m /3 to determine if there is a peak in the power spectrum at these frequencies; and C4. determining said fundamental frequency to be a. w m if there is no peak in the power signal at w m /2 or w m /3; or b. w m /3 if there is a peak in the power signal at w m /3, and therefore w m is a harmonic frequency; or c. w m /2 if there is a no peak in the power signal at w m /3 and a peak is present at w m /2, and therefore w m is a harmonic frequency. a. w m if there is no peak in the power signal at w m /2 or w m /3; or b. w m /3 if there is a peak in the power signal at w m /3, and therefore w m is a harmonic frequency; or c. w m /2 if there is a no peak in the power signal at w m /3 and a peak is present at w m /2, and therefore w m is a harmonic frequency.
Control system (1, 4, 5; 1', 4', 5'; 1", 4'', 5''), comprising - a real control (1; 1'; 1'') which, to control a real plant or a real machine, is connected to the real plant or the real machine, - a virtual control (4; 4'; 4'') which, to simulate the control of the real plant or the real machine, is connected to a virtual plant or a virtual machine (6'; 6''), - synchronisation means for synchronising the real control (1; 1'; 1'') and the virtual control (4; 4'; 4"), - a higher-level processor unit (5; 5'; 5'') for detecting data with respect to the real plant or the real machine and for processing this data, wherein the virtual control (4; 4'; 4'') transfers the data detected by the higher-level processor unit (5; 5'; 5'') from the virtual control (4; 4'; 4'') to the higher-level processor unit (5; 5'; 5''), wherein the real control (1; 1'; 1'') and the virtual control (4; 4'; 4'') execute the same control program synchronously and wherein the real control (1; 1'; 1'') transfers time-based data and/or state-based data from the real control to the virtual control (4; 4'; 4'') for synchronisation with the virtual control (4; 4'; 4"). - a real control (1; 1'; 1'') which, to control a real plant or a real machine, is connected to the real plant or the real machine, - a virtual control (4; 4'; 4'') which, to simulate the control of the real plant or the real machine, is connected to a virtual plant or a virtual machine (6'; 6''), - synchronisation means for synchronising the real control (1; 1'; 1'') and the virtual control (4; 4'; 4"), - a higher-level processor unit (5; 5'; 5'') for detecting data with respect to the real plant or the real machine and for processing this data, wherein the virtual control (4; 4'; 4'') transfers the data detected by the higher-level processor unit (5; 5'; 5'') from the virtual control (4; 4'; 4'') to the higher-level processor unit (5; 5'; 5''), wherein the real control (1; 1'; 1'') and the virtual control (4; 4'; 4'') execute the same control program synchronously and wherein the real control (1; 1'; 1'') transfers time-based data and/or state-based data from the real control to the virtual control (4; 4'; 4'') for synchronisation with the virtual control (4; 4'; 4").
A method of a mobile terminal, the method comprising: configuring a functionality for a hard touch type for a context in which the mobile terminal is in a locked state; detecting a touch input on a touch screen of the terminal in the locked state of the mobile terminal; determining location coordinates of the touch input at which a knocking sound is generated by the touch input; and identifying whether the touch input is the hard touch type, for example a knuckle touch, based at least on sound characteristics of the touch input including frequency and amplitude; and if the touch input is identified as the hard touch type, loading the functionality or a predefined application according to the location coordinates and the touch input upon a transition of the mobile terminal to an unlocked state. configuring a functionality for a hard touch type for a context in which the mobile terminal is in a locked state; detecting a touch input on a touch screen of the terminal in the locked state of the mobile terminal; determining location coordinates of the touch input at which a knocking sound is generated by the touch input; and identifying whether the touch input is the hard touch type, for example a knuckle touch, based at least on sound characteristics of the touch input including frequency and amplitude; and if the touch input is identified as the hard touch type, loading the functionality or a predefined application according to the location coordinates and the touch input upon a transition of the mobile terminal to an unlocked state.
Rotary cleaning nozzle for cleaning surfaces in a beverage filling system by means of a fluid, comprising: - a nozzle assembly with a supply channel for the fluid, - a nozzle head rotationally mounted on the nozzle assembly having at least one nozzle outlet opening , out of which during operation emerges fluid in the form of a cleaning jet, flowing through the supply channel and the nozzle head , - an electrical generator for inducing electrical energy by means of rotation of the nozzle head , and - a control unit for displaying a rotation of the nozzle head as a function of the induced electrical energy characterised in that the generator comprises a rotor arranged on or in the nozzle head and a stator , aligned therewith, arranged on or in the nozzle assembly , wherein the rotor is provided in the form of at least one magnet and the stator is provided in the form of at least one induction coil , or the rotor is provided in the form of at least one induction coil and the stator is provided in the form of at least one magnet. - a nozzle assembly with a supply channel for the fluid, - a nozzle head rotationally mounted on the nozzle assembly having at least one nozzle outlet opening , out of which during operation emerges fluid in the form of a cleaning jet, flowing through the supply channel and the nozzle head , - an electrical generator for inducing electrical energy by means of rotation of the nozzle head , and - a control unit for displaying a rotation of the nozzle head as a function of the induced electrical energy the generator comprises a rotor arranged on or in the nozzle head and a stator , aligned therewith, arranged on or in the nozzle assembly , wherein the rotor is provided in the form of at least one magnet and the stator is provided in the form of at least one induction coil , or the rotor is provided in the form of at least one induction coil and the stator is provided in the form of at least one magnet.
An apparatus for measuring a particle size distribution of a raw material , the apparatus being adapted to convey by a conveyer the raw material after being sieved with a sieve , the raw material containing coarse particles larger than a sieve mesh size of the sieve and fine particles that have not passed through the sieve and adhere to the coarse particles, the fine particles being equal to or smaller than the sieve mesh size, the apparatus comprising: a coarse particle measuring device that is disposed above the conveyer and adjusted for acquiring information indicating a particle size distribution of the coarse particles of the raw material ; a fine particle measuring device that is disposed above the conveyer and adjusted for acquiring information indicating a particle size distribution of the fine particles of the raw material ; and an arithmetic device that is adjusted for computing the particle size distribution of the coarse particles using the information indicating the particle size distribution of the coarse particles, computing the particle size distribution of the fine particles using the information indicating the particle size distribution of the fine particles, and computing an overall particle size distribution of the raw material using the particle size distribution of the coarse particles and the particle size distribution of the fine particles. a coarse particle measuring device that is disposed above the conveyer and adjusted for acquiring information indicating a particle size distribution of the coarse particles of the raw material ; a fine particle measuring device that is disposed above the conveyer and adjusted for acquiring information indicating a particle size distribution of the fine particles of the raw material ; and an arithmetic device that is adjusted for computing the particle size distribution of the coarse particles using the information indicating the particle size distribution of the coarse particles, computing the particle size distribution of the fine particles using the information indicating the particle size distribution of the fine particles, and computing an overall particle size distribution of the raw material using the particle size distribution of the coarse particles and the particle size distribution of the fine particles.
A heat exchanger for motor vehicles, comprising: • a core comprising a tube bundle of open ends stacked tubes and comprising a top and a bottom extreme tubes , • headers , each having a shaped flange with corners and being connected with open ends of the tubes • side housing parts situated on opposite sides of the core and extending at least partly between the extreme tubes and between the header characterized in that at least one of the side housing parts have at least one protrusion projecting from the side housing part in a corner thereof and bent to contact the side surface of the tube bundle; the at least one protrusion has an external surface opposite to the tube bundle and formed into a shape matching the profile shape of the flange of the header in its corner ; wherein the said external surface of the at least one protrusion abuts the flange of the said header to ensure a liquid-tight connection of the header with the flange at the corner thereof. • a core comprising a tube bundle of open ends stacked tubes and comprising a top and a bottom extreme tubes , • headers , each having a shaped flange with corners and being connected with open ends of the tubes • side housing parts situated on opposite sides of the core and extending at least partly between the extreme tubes and between the header
Method for searching for leaks in a water pipeline network, comprising: • acquiring georeferencing data of a water pipeline network and data indicative of georeferenced secondary cosmic radiation measurements carried out in a region of the earth's surface where said water pipeline network extends (block 21); • carrying out a processing of the acquired data and generating, based on the processing carried out, a georeferenced digital map imaging the water pipeline network and soil moisture content in the region where said water pipeline network extends (block 22); and • detecting and locating one or more leaks in the water pipeline network based on the georeferenced digital map generated (block 23); characterized in that carrying out a processing of the acquired data includes estimating the soil moisture content in the region where the water pipeline network extends, based on the data indicative of the georeferenced secondary cosmic radiation measurements carried out in said region, by using correction factors for the measurements which take into account: • radial and anisotropy sensitivity effects of the georeferenced secondary cosmic radiation measurements carried out; • values of air humidity, atmospheric pressure and intensity of the incident secondary cosmic radiation detected/measured simultaneously to execution of said measurements in the region where the water pipeline network extends or in positions of the earth's surface where said measurements are carried out; • effects related to presence of vegetation and/or artificial or natural humidity. • acquiring georeferencing data of a water pipeline network and data indicative of georeferenced secondary cosmic radiation measurements carried out in a region of the earth's surface where said water pipeline network extends (block 21); • carrying out a processing of the acquired data and generating, based on the processing carried out, a georeferenced digital map imaging the water pipeline network and soil moisture content in the region where said water pipeline network extends (block 22); and • detecting and locating one or more leaks in the water pipeline network based on the georeferenced digital map generated (block 23); characterized in that carrying out a processing of the acquired data includes estimating the soil moisture content in the region where the water pipeline network extends, based on the data indicative of the georeferenced secondary cosmic radiation measurements carried out in said region, by using correction factors for the measurements which take into account: • radial and anisotropy sensitivity effects of the georeferenced secondary cosmic radiation measurements carried out; • values of air humidity, atmospheric pressure and intensity of the incident secondary cosmic radiation detected/measured simultaneously to execution of said measurements in the region where the water pipeline network extends or in positions of the earth's surface where said measurements are carried out; • effects related to presence of vegetation and/or artificial or natural humidity.
A bite block comprising: a hollow oral cavity insert part that is configured to be in contact with an oral cavity of a subject at the time of attaching the bite block to the subject; a plate that is formed in a flange shape extending from the oral cavity insert part ; and a hollow outside part that extends from the plate and includes an exposed portion which is exposed to an outside of the oral cavity at the time of attaching, and communicates with a hole of the oral cavity insert part , wherein the plate separates the oral cavity insert part and the hollow outside part , wherein at least two through holes or grooves adapted to an external device being attached to the bite block are provided in a side surface portion of the hollow outside part , on the exposed portion, and wherein the at least two through holes or grooves are provided in a right and left direction of a face of the subject in a state where the bite block is attached to the subject and as seen from a front side of the subject. a hollow oral cavity insert part that is configured to be in contact with an oral cavity of a subject at the time of attaching the bite block to the subject; a plate that is formed in a flange shape extending from the oral cavity insert part ; and a hollow outside part that extends from the plate and includes an exposed portion which is exposed to an outside of the oral cavity at the time of attaching, and communicates with a hole of the oral cavity insert part , wherein the plate separates the oral cavity insert part and the hollow outside part , wherein at least two through holes or grooves adapted to an external device being attached to the bite block are provided in a side surface portion of the hollow outside part , on the exposed portion, and wherein the at least two through holes or grooves are provided in a right and left direction of a face of the subject in a state where the bite block is attached to the subject and as seen from a front side of the subject.
A cosmetic process for treating keratin fibers, preferably the hair, comprising at least the steps consisting in: a) applying to said keratin fibers a composition containing at least one substance chosen from non-silicone polymers, said composition being free of alkali metal or alkaline-earth metal hydroxides at a pH above 12 or of reducing agents for cleaving the disulfide bonds, b) applying a mechanical tension to said keratin fibers, and c) exposing said keratin fibers under mechanical tension to microwaves, at a pressure ranging from 50 000 to 250 000 Pa, in the presence of at least one solvent in vapor form on contact with the keratin fibers and without there being complete drying of the keratin fibers throughout the entire exposure to the microwaves, the solvent(s) in vapor form being entirely generated by evaporating at least one compound present, before emission of the microwaves, on contact with the keratin fibers, step a) taking place prior to step c). a) applying to said keratin fibers a composition containing at least one substance chosen from non-silicone polymers, said composition being free of alkali metal or alkaline-earth metal hydroxides at a pH above 12 or of reducing agents for cleaving the disulfide bonds, b) applying a mechanical tension to said keratin fibers, and c) exposing said keratin fibers under mechanical tension to microwaves, at a pressure ranging from 50 000 to 250 000 Pa, in the presence of at least one solvent in vapor form on contact with the keratin fibers and without there being complete drying of the keratin fibers throughout the entire exposure to the microwaves,
A sonication device comprising: a sonication plate receiving and holding a sample container; said sonication plate including a first energy coupling structure; said sample container containing a second energy coupling structure complementary to said first energy coupling structure such that when the sample container is mated to the sampling plate, maximal energy transfer occurs from said sonication plate into said sample container, characterized in that the sample container (test tube) is provided with an attachment feature and the sonication plate is provided with attachment holes possessing a feature matching the attachment feature of the container, in that the location of the maximum energy transfer is determined by the standing wave and in that the sample container matches the impedance of the plate to provide optimal acoustic energy coupling.
A method for controlling a multilevel regenerative drive having a converter and an inverter , the method comprising: applying at least one of unipolar modulation and bipolar modulation to the inverter ; and applying at least one of unipolar modulation and bipolar modulation to the converter ; characterized in that the applying at least one of unipolar modulation and bipolar modulation to the converter comprises applying unipolar modulation to the converter . applying at least one of unipolar modulation and bipolar modulation to the inverter ; and applying at least one of unipolar modulation and bipolar modulation to the converter ; characterized in that the applying at least one of unipolar modulation and bipolar modulation to the converter comprises applying unipolar modulation to the converter .