mhurhangee/ep-ind-claims huggingface dataset:
A sheet metal clip (10, 50, 70, 100, 120, 130) for fixing an elongated trim strip with opposed receiving channels to another object comprising a one-piece sheet metal body having a planar trim engaging part and an object engaging part extending or extendable at a right angle from the trim engaging part, the trim engaging part having an oblong profile with a long dimension and a diagonal dimension shorter than the long dimension whereby the trim engaging part can pass between opposed receiving channels when the diagonal profile dimension is perpendicular to a longitudinal direction of the trim strip and is restrained in the channels when the long dimension is perpendicular to the longitudinal direction of the trim strip, a slot in the trim engaging part and a sharp point disposed to engage a wall of a channel when the trim engaging part is perpendicular to the longitudinal direction of the trim strip, the slot is constructed and arranged to produce a spring section that is resiliently deflected when the trim engaging part is received in the channels with its long dimension rotated perpendicular to the trim strip longitudinal direction, the sharp point being a sharp corner of the spring section, characterized in that the sharp corner projects lower than an otherwise lowermost edge of the clip and is disposed to engage a base wall of a channel.
A method for controlling a man-machine interface of a hybrid motor vehicle, characterized in that this method includes: a) calculating a charge time Tc in order to reach a predetermined voltage set value Uc at the terminals of a supercapacitor used to power an electric starter of a heat engine of the vehicle, said calculation being performed as a function of a measurement of the current voltage Ua at the terminals of the supercapacitor, and b) controlling the man-machine interface in order to indicate that the start-up of the heat engine can be triggered once a time period Δt has elapsed, said time period Δt being determined by the following relationship: Δ t = min Tc S, wherein • min is the minimum function, and • S is a predetermined time period. a) calculating a charge time Tc in order to reach a predetermined voltage set value Uc at the terminals of a supercapacitor used to power an electric starter of a heat engine of the vehicle, said calculation being performed as a function of a measurement of the current voltage Ua at the terminals of the supercapacitor, and b) controlling the man-machine interface in order to indicate that the start-up of the heat engine can be triggered once a time period Δt has elapsed, said time period Δt being determined by the following relationship: Δ t = min Tc S, wherein • min is the minimum function, and • S is a predetermined time period. • min is the minimum function, and • S is a predetermined time period.
A method for processing biometric information in an electronic device including a processor that operates at a normal mode or at a secure mode, the method comprising: detecting (410, 510) a biometric input event from a biometric sensor module at the normal mode; in response to the biometric input event, switching from the normal mode to the secure mode, obtaining sensed data from the biometric sensor module at the secure mode; creating biometric data based on the sensed data at the secure mode; performing biometric registration or biometric authentication based on the created biometric data at the secure mode; transferring result information of the biometric registration or the biometric authentication from the secure mode to the normal mode, switching from the secure mode to the normal mode; and providing (480, 585) result information of the biometric registration or the biometric authentication at the normal mode, wherein the sensed data is not accessible by the processor while the processor is operating at the normal mode, wherein the sensed data is accessible by the processor while the processor operates at the secure mode. detecting (410, 510) a biometric input event from a biometric sensor module at the normal mode; in response to the biometric input event, switching from the normal mode to the secure mode, obtaining sensed data from the biometric sensor module at the secure mode; creating biometric data based on the sensed data at the secure mode; performing biometric registration or biometric authentication based on the created biometric data at the secure mode; transferring result information of the biometric registration or the biometric authentication from the secure mode to the normal mode, switching from the secure mode to the normal mode; and providing (480, 585) result information of the biometric registration or the biometric authentication at the normal mode, wherein the sensed data is not accessible by the processor while the processor is operating at the normal mode, wherein the sensed data is accessible by the processor while the processor operates at the secure mode.
Method for transmitting a message between a sender and a receiver having means for authentication of sender/receiver paths and having a message counter, wherein a sender-side identification is used for checksum calculation, characterised in that - the means for authentication of sender/receiver paths have identifier sequences with a plurality of identifiers and - one of the identifier sequences is used by the sender and the identifier used for checksum calculation is selected from the identification sequence dynamically based on the message counter value. - the means for authentication of sender/receiver paths have identifier sequences with a plurality of identifiers and - one of the identifier sequences is used by the sender and the identifier used for checksum calculation is selected from the identification sequence dynamically based on the message counter value.
A system (10, 10', 100) for providing feedback regarding chest compressions in CPR, wherein the system comprises: a measuring unit providing a measure of arterial blood pressure of a patient, a processor registering data from the measuring unit 150), the processor being configured to obtain arterial blood pressure of the patient for a time period while CPR is being performed, and the processor being configured to calculate a blood pressure CPR quality indicator using the blood pressure as a function of time, an indicator unit providing an indication of the blood pressure CPR quality indicator, and a sensor for registering depth of compression of CPR and a display for displaying a signal indicating depth of compression, characterized in that the processor is further configured to indicate that in order to obtain an optimal compression depth, a step up and a step down of compression depth relative to a previously determined optimal compression depth should be performed, where after selecting a new optimal compression depth based on the three CPR quality indicators obtained, and wherein the new optimal compression depth selected from the three applied compression depths (50a, 50b, 50c) is defined as the depth with the highest blood pressure CPR quality indicator value or as the smallest depth with a blood pressure CPR quality indicator value that exceeds a target blood pressure CPR quality indicator value. a measuring unit providing a measure of arterial blood pressure of a patient, a processor registering data from the measuring unit 150), the processor being configured to obtain arterial blood pressure of the patient for a time period while CPR is being performed, and the processor being configured to calculate a blood pressure CPR quality indicator using the blood pressure as a function of time, an indicator unit providing an indication of the blood pressure CPR quality indicator, and a sensor for registering depth of compression of CPR and a display for displaying a signal indicating depth of compression,
A vacuum insulated heating assembly for a baked smoking set, comprising an outer tube and an inner tube; the outer tube is fitted outside the inner tube, and two ends of the outer tube are fixed to an outer wall surface of the inner tube, a vacuum area is formed between an inner wall surface of the outer tube and the inner tube; the inner tube comprises a tubular substrate, and a heating circuit formed on a surface of the tubular substrate so as to generate heat after electrification; and an axial position of the heating circuit on the tubular substrate is within an axial interval of the vacuum area, wherein the tubular substrate is made of a low heat conductive material, and the two ends of the outer tube are fixed with the inner tube using vacuum welding. the outer tube is fitted outside the inner tube, and two ends of the outer tube are fixed to an outer wall surface of the inner tube, a vacuum area is formed between an inner wall surface of the outer tube and the inner tube; the inner tube comprises a tubular substrate, and a heating circuit formed on a surface of the tubular substrate so as to generate heat after electrification; and an axial position of the heating circuit on the tubular substrate is within an axial interval of the vacuum area, wherein the tubular substrate is made of a low heat conductive material, and the two ends of the outer tube are fixed with the inner tube using vacuum welding.
A method of uniquely identifying and quantifying n single protein molecules, comprising providing n single protein molecules in a mixture of protein molecules, wherein the single protein molecules are conjugated to a substrate and spatially separated such that each individual protein molecule has a unique, optically resolvable, spatial address, each protein being assigned an indexed address by coordinates; iteratively applying m affinity reagents to the substrate, wherein n is larger than m, and wherein the affinity reagents are modified to have attached detection moieties; determining the binding addresses for each modified affinity reagent applying a software tool to determine the most likely identity of each protein at each coordinate of the substrate from information about which affinity reagents bound to the coordinate, wherein the software comprises a machine learning algorithm. providing n single protein molecules in a mixture of protein molecules, wherein the single protein molecules are conjugated to a substrate and spatially separated such that each individual protein molecule has a unique, optically resolvable, spatial address, each protein being assigned an indexed address by coordinates; iteratively applying m affinity reagents to the substrate, wherein n is larger than m, and wherein the affinity reagents are modified to have attached detection moieties; determining the binding addresses for each modified affinity reagent applying a software tool to determine the most likely identity of each protein at each coordinate of the substrate from information about which affinity reagents bound to the coordinate, wherein the software comprises a machine learning algorithm.
An oscillatory power tool capable of using various types of cutting tools, the oscillatory power tool comprising: an output shaft for mounting a cutting tool and driving the cutting tool in an oscillating rotary motion, wherein the cutting tool comprises a securing section capable of connecting with the output shaft and an end of the output shaft has a driving section for engaging with the securing section of the cutting tool; and a fastener (36, 236) for fastening the cutting tool to the output shaft, characterized in that the driving section has a fitting surface for contacting a surface of the securing section, wherein the fitting surface is a friction surface (50, 50a, 50b, 50c). an output shaft for mounting a cutting tool and driving the cutting tool in an oscillating rotary motion, wherein the cutting tool comprises a securing section capable of connecting with the output shaft and an end of the output shaft has a driving section for engaging with the securing section of the cutting tool; and a fastener (36, 236) for fastening the cutting tool to the output shaft, characterized in that the driving section has a fitting surface for contacting a surface of the securing section, wherein the fitting surface is a friction surface (50, 50a, 50b, 50c).
A rodent comprising in its genome a deletion of the coding portion of exon 2 through the coding portion of exon 11 of an endogenous C9orf72 locus, wherein the rodent develops one or more symptoms of (i) immune system dysregulation or dysfunction and/or (ii) motor and neurological abnormalities similar to those found in human motor neuron diseases.
Use of an actinic ray-curable-type inkjet ink composition for 3D printing, the ink composition comprising: an acrylate monomer A capable of forming a homopolymer having a glass transition temperature of from 25°C to 120°C; an acrylate monomer B capable of forming a homopolymer having a glass transition temperature of -60°C or higher and lower than 25°C; a bifunctional acrylate oligomer C having a weight-average molecular weight of from 2,000 to 20,000; and an acylphosphine oxide compound, wherein the mass content of bifunctional or higher-functional acrylate compounds with respect to the total amount of the ink composition is 15% by mass or less. an acrylate monomer A capable of forming a homopolymer having a glass transition temperature of from 25°C to 120°C; an acrylate monomer B capable of forming a homopolymer having a glass transition temperature of -60°C or higher and lower than 25°C; a bifunctional acrylate oligomer C having a weight-average molecular weight of from 2,000 to 20,000; and an acylphosphine oxide compound, wherein the mass content of bifunctional or higher-functional acrylate compounds with respect to the total amount of the ink composition is 15% by mass or less.
A method, comprising: at an electronic device with a media output device: receiving a request determined based on a voice input; and in response to receiving the request: in accordance with a determination that the voice input does not match a voice profile associated with a user account that is associated with the electronic device: in accordance with a setting of the electronic device being set to a first state, causing update of account data of a first account based on the request; and in accordance with the setting of the electronic device being set to a second state, forgoing causing update of the account data of the first account based on the request, wherein the first account is different from the user account. receiving a request determined based on a voice input; and in response to receiving the request: in accordance with a determination that the voice input does not match a voice profile associated with a user account that is associated with the electronic device: in accordance with a setting of the electronic device being set to a first state, causing update of account data of a first account based on the request; and in accordance with the setting of the electronic device being set to a second state, forgoing causing update of the account data of the first account based on the request, wherein the first account is different from the user account. in accordance with a setting of the electronic device being set to a first state, causing update of account data of a first account based on the request; and in accordance with the setting of the electronic device being set to a second state, forgoing causing update of the account data of the first account based on the request, wherein the first account is different from the user account.
An endoscope system comprising: a lighting means (11, 33) adapted to sequentially apply a plurality of illumination light beams having different wavelength bands to an internal body portion; an image pickup means adapted to sequentially capture reflected light beams from said internal body portion to obtain a plurality of frames of image signals corresponding to types of said illumination light beams; an oxygen saturation level calculation means adapted to calculate an oxygen saturation level of blood from said image signals; a special image generation means adapted to produce a special image that is artificially colored in accordance with said oxygen saturation level; a display means adapted to display said special image; and a displacement calculation means adapted to calculate a positional displacement in said image signals between said frames; characterized by a display form switching means adapted to switch a display form of said special image in accordance with said positional displacement, wherein said displacement calculation means is adapted to divide each of said image signals into a plurality of areas, and to calculate a displacement in said image signals between said frames on an area-by-area basis as said positional displacement; said display form switching means is adapted to switch said display form on an area-by-area basis in accordance with said positional displacement, said display form switching means is adapted to display said special image such that chroma in said special image is decreased with increase in the positional displacement in each of said areas. a lighting means (11, 33) adapted to sequentially apply a plurality of illumination light beams having different wavelength bands to an internal body portion; an image pickup means adapted to sequentially capture reflected light beams from said internal body portion to obtain a plurality of frames of image signals corresponding to types of said illumination light beams; an oxygen saturation level calculation means adapted to calculate an oxygen saturation level of blood from said image signals; a special image generation means adapted to produce a special image that is artificially colored in accordance with said oxygen saturation level; a display means adapted to display said special image; and a displacement calculation means adapted to calculate a positional displacement in said image signals between said frames; characterized by a display form switching means adapted to switch a display form of said special image in accordance with said positional displacement, wherein said displacement calculation means is adapted to divide each of said image signals into a plurality of areas, and to calculate a displacement in said image signals between said frames on an area-by-area basis as said positional displacement; said display form switching means is adapted to switch said display form on an area-by-area basis in accordance with said positional displacement, said display form switching means is adapted to display said special image such that chroma in said special image is decreased with increase in the positional displacement in each of said areas.
A wind turbine operable by pitch regulation and variable rotor speed, having three wind turbine blades at least 30 meters in length, wherein the combined radius specific solidity Sol r of the rotor blades is below a linear interpolation between: Sol r = 0.035 at blade radius r = 30% of the rotor radius R Sol r = 0.025 at blade radius r = 50% of the rotor radius R Sol r = 0.018 at blade radius r = 70% of the rotor radius R Sol r = 0.011 at blade radius r = 90% of the rotor radius R for at least 50 radius-% of the blade(s) between blade radius r = 30 - 90% of the rotor radius R; preferably for at least 75 radius-% of the blade(s) between blade radius r = 30 - 90% of the rotor radius R; and more preferably for at least 95 radius-% of the blade(s) between blade radius r = 30 to 90% of the rotor radius R; and where the maximum lift coefficient C L,max > 1.45 for a Reynolds number Re = 1.5x10 6, where C L,max is valid for a two-dimensional flow passing a smooth profile surface, for at least 80 radius-% of the blade, preferably for at least 90 radius-% of the blade. Sol r = 0.035 at blade radius r = 30% of the rotor radius R Sol r = 0.025 at blade radius r = 50% of the rotor radius R Sol r = 0.018 at blade radius r = 70% of the rotor radius R Sol r = 0.011 at blade radius r = 90% of the rotor radius R for at least 50 radius-% of the blade(s) between blade radius r = 30 - 90% of the rotor radius R; preferably for at least 75 radius-% of the blade(s) between blade radius r = 30 - 90% of the rotor radius R; and more preferably for at least 95 radius-% of the blade(s) between blade radius r = 30 to 90% of the rotor radius R; and where the maximum lift coefficient C L,max > 1.45 for a Reynolds number Re = 1.5x10 6, where C L,max is valid for a two-dimensional flow passing a smooth profile surface, for at least 80 radius-% of the blade, preferably for at least 90 radius-% of the blade.
An isolated nucleic acid molecule comprising or consisting of a nucleotide sequence selected from the group: i) a nucleotide sequence as set forth in SEQ ID NO: 8; ii) a nucleotide sequence wherein said sequence is degenerate as a result of the genetic code to the nucleotide sequence defined in (i); iii) a nucleic acid molecule that is at least 80% identical to SEQ ID NO: 8 which encodes a polypeptide that has carboxylesterase activity; iv) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence as set forth in SEQ ID NO: 18, or a nucleotide sequence that encodes a polypeptide that has at least 75% amino acid sequence identity across the full length amino acid sequence set forth in SEQ ID NO: 18 wherein said polypeptide has carboxylesterase activity. i) a nucleotide sequence as set forth in SEQ ID NO: 8; ii) a nucleotide sequence wherein said sequence is degenerate as a result of the genetic code to the nucleotide sequence defined in (i); iii) a nucleic acid molecule that is at least 80% identical to SEQ ID NO: 8 which encodes a polypeptide that has carboxylesterase activity; iv) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence as set forth in SEQ ID NO: 18, or a nucleotide sequence that encodes a polypeptide that has at least 75% amino acid sequence identity across the full length amino acid sequence set forth in SEQ ID NO: 18 wherein said polypeptide has carboxylesterase activity.
A process for manufacturing a coating composition, wherein the process comprises the steps of: (i) forming a reaction mixture comprising water and first quaternary silane wherein the first quaternary silane has formula, Si(R 1) 4 wherein each R 1 is independently selected from alkoxy and halogen; and (ii) hydrolyzing the reaction mixture under basic conditions; and then (iii) continuing the hydrolysis under acidic conditions; and then (iv) diluting die reaction mixture with an aqueous liquid to yield the coaling composition comprising at least 50% water by weight of the coating composition. (i) forming a reaction mixture comprising water and first quaternary silane wherein the first quaternary silane has formula, Si(R 1) 4 wherein each R 1 is independently selected from alkoxy and halogen; and (ii) hydrolyzing the reaction mixture under basic conditions; and then (iii) continuing the hydrolysis under acidic conditions; and then (iv) diluting die reaction mixture with an aqueous liquid to yield the coaling composition comprising at least 50% water by weight of the coating composition.