mhurhangee/patent-ind-claim-en huggingface dataset:
A piezoelectric element , comprising: a plate-shaped piezoelectric body having one principal face and the other principal face which are opposite to each other, the plate-shaped piezoelectric body being made of ceramics having a piezoelectric property; and a first surface electrode mounted on the one principal face and a second surface electrode mounted on the other principal face, at least one of the first surface electrode and the second surface electrode including a center part and a peripheral part which is greater in thickness than the center part, characterised in that the peripheral part extending along an outer periphery of the piezoelectric body has a thicker region and a thinner region which is thinner than the thicker region in a direction along the outer periphery of the piezoelectric body. a plate-shaped piezoelectric body having one principal face and the other principal face which are opposite to each other, the plate-shaped piezoelectric body being made of ceramics having a piezoelectric property; and a first surface electrode mounted on the one principal face and a second surface electrode mounted on the other principal face, at least one of the first surface electrode and the second surface electrode including a center part and a peripheral part which is greater in thickness than the center part,
A method for estimating a blood pressure (BP) of a person, the method comprising a processor implemented steps of: capturing an electrocardiogram (ECG) signal of the person using an ECG sensor ; capturing a photoplethysmogram (PPG) signal of the person using a PPG sensor , wherein the PPG signal is synchronized with the ECG signal; preprocessing the ECG signal and PPG signal to remove a plurality of noises; estimating a pulse transit time (PTT) using the ECG signal and PPG signal; extracting a plurality of features of the PPG signal; providing the PTT and the plurality of features to a feature selection module ; applying a feature selection algorithm for selecting a set of features, wherein the set of features are selected to maximize the accuracy in classifying a low/normal BP class from a high BP class; classifying the data corresponding to ECG signal, PPG signal and PTT in to the high BP class and the low/normal BP class based on the selected set of features using a classification module ; and performing a regression analysis on the ECG signal, the PPG signal and the PTT corresponding to the low/normal BP class to estimate the blood pressure of the person. capturing an electrocardiogram (ECG) signal of the person using an ECG sensor ; capturing a photoplethysmogram (PPG) signal of the person using a PPG sensor , wherein the PPG signal is synchronized with the ECG signal; preprocessing the ECG signal and PPG signal to remove a plurality of noises; estimating a pulse transit time (PTT) using the ECG signal and PPG signal; extracting a plurality of features of the PPG signal; providing the PTT and the plurality of features to a feature selection module ; applying a feature selection algorithm for selecting a set of features, wherein the set of features are selected to maximize the accuracy in classifying a low/normal BP class from a high BP class; classifying the data corresponding to ECG signal, PPG signal and PTT in to the high BP class and the low/normal BP class based on the selected set of features using a classification module ; and performing a regression analysis on the ECG signal, the PPG signal and the PTT corresponding to the low/normal BP class to estimate the blood pressure of the person.
A detection system designed to be fitted to a motor vehicle, the detection system having at least one optical sensor delimited by at least one optical surface of which the shape and orientation define a detection field of the optical sensor , and at least one cleaning device for this optical surface , in which the cleaning device has a delivery manifold for delivering at least one cleaning and/or drying fluid, said delivery manifold being movable, relative to the optical surface , between a first or idle position in which it does not deliver any fluid and a second position called end deployed, characterized in that the delivery manifold is outside the detection field of the optical sensor in all of the positions of the delivery manifold between the first and second positions.
Electrode for the electrical stimulation of brain tissue or other tissue of a patient, the electrode being configured for location between skull and scalp of the patient, wherein the electrode has a stimulation surface which is configured for contacting the skull of the patient, wherein the electrode is a disc-shaped electrode, and characterized by the disc-shaped electrode having either: a) a pre-shaped concave stimulation surface or b) a pre-shaped flat stimulation surface, and wherein both the concave and the flat electrode comprise at least one incision and/or cut-out , allowing the electrode to be more flexibly deformable for adaption to the outer shape of the skull of the patient. a) a pre-shaped concave stimulation surface or b) a pre-shaped flat stimulation surface,
A process for preparing an iron carbohydrate complex compound comprising the steps of (i) providing an iron preparation comprising iron in a form selected from a water-soluble iron salt, an iron hydroxide or an iron oxide-hydroxide, wherein - the amount of arsenic in the iron preparation does not exceed 4.5 μg per g of iron, and - the amount of lead in the iron preparation does not exceed 1.5 μg per g of iron; and (ii) contacting the iron preparation with a carbohydrate ligand in the presence of water so as to form the iron carbohydrate complex compound, wherein the iron carbohydrate complex compound is an iron hydrogenated oligoisomaltose. (i) providing an iron preparation comprising iron in a form selected from a water-soluble iron salt, an iron hydroxide or an iron oxide-hydroxide, wherein - the amount of arsenic in the iron preparation does not exceed 4.5 μg per g of iron, and - the amount of lead in the iron preparation does not exceed 1.5 μg per g of iron; and - the amount of arsenic in the iron preparation does not exceed 4.5 μg per g of iron, and - the amount of lead in the iron preparation does not exceed 1.5 μg per g of iron; and (ii) contacting the iron preparation with a carbohydrate ligand in the presence of water so as to form the iron carbohydrate complex compound,
A method for generating a command to be processed by a voice-controlled electronic device , the method comprising: receiving a first voice input representative of a command to be processed by the electronic device ; performing incorrect speech recognition on the first voice input and transcribing the incorrectly recognized speech into text; displaying the text on a screen of the electronic device ; receiving (S202) a second voice input representative of a first portion of the command to be processed by the electronic device ; receiving (S204) a selection of content displayed on the screen of the electronic device , the selected content being representative of a second portion of the command to be processed by the electronic device ; and generating (S206) the command based on a combination of the second voice input and the selected content. receiving a first voice input representative of a command to be processed by the electronic device ; performing incorrect speech recognition on the first voice input and transcribing the incorrectly recognized speech into text; displaying the text on a screen of the electronic device ; receiving (S202) a second voice input representative of a first portion of the command to be processed by the electronic device ; receiving (S204) a selection of content displayed on the screen of the electronic device , the selected content being representative of a second portion of the command to be processed by the electronic device ; and generating (S206) the command based on a combination of the second voice input and the selected content.
A vehicle console disposable on a floor panel of a vehicle between a driver seat and a passenger seat so as to extend in a front-back direction, the vehicle console comprising: a console box having a box shape open on an upper side thereof and allowing storage of an object therein; a flat tray disposed forwardly adjacent to the console box and allowing placement of an object on an upper surface thereof; one or more electrical components disposed on an inside front wall of the console box when the vehicle console is disposed on a floor panel of a vehicle; and a water barrier wall disposed along a boundary between the tray and the console box so as to extend in a width direction of the vehicle when the vehicle console is disposed on a floor panel of a vehicle and so as to project further upward than an upper surface of an end portion of the tray , wherein the water barrier wall has a cutout whose bottom surface is positioned lower than an upper end of the water barrier wall , the cutout penetrating the water barrier wall in a front-back direction when the vehicle console is disposed on a floor panel of a vehicle, the bottom surface of the cutout is positioned higher than an upper end of the console box , and characterized in that the cutout is positionally displaced from all the electrical components in a vehicle width direction when the vehicle console is disposed on a floor panel of a vehicle, and the cutout guides liquid flowing from the tray to an inside of the console box . a console box having a box shape open on an upper side thereof and allowing storage of an object therein; a flat tray disposed forwardly adjacent to the console box and allowing placement of an object on an upper surface thereof; one or more electrical components disposed on an inside front wall of the console box when the vehicle console is disposed on a floor panel of a vehicle; and a water barrier wall disposed along a boundary between the tray and the console box so as to extend in a width direction of the vehicle when the vehicle console is disposed on a floor panel of a vehicle and so as to project further upward than an upper surface of an end portion of the tray , wherein the water barrier wall has a cutout whose bottom surface is positioned lower than an upper end of the water barrier wall , the cutout penetrating the water barrier wall in a front-back direction when the vehicle console is disposed on a floor panel of a vehicle, the bottom surface of the cutout is positioned higher than an upper end of the console box , and characterized in that the cutout is positionally displaced from all the electrical components in a vehicle width direction when the vehicle console is disposed on a floor panel of a vehicle, and the cutout guides liquid flowing from the tray to an inside of the console box .
A dishwasher comprising a washing tub; at least one rack which carries the items placed therein; a water line which provides the delivery of water into the washing tub; a cylinder which is provided on the water line and through which the water in the water line flows; a piston which is disposed in the cylinder , a frame ; a carrier which is fitted into the frame characterized by the carrier has at least one first hole on the base thereof; a dispenser which is attached to the base of the carrier , which has at least a second hole at the base thereof and which moves with the piston relative to the frame and the carrier ; and a cleaning agent box , which is fixed to the rack and which enables the cleaning agent to be carried when the first and second holes are not aligned, and enables the cleaning agent to be poured into the washing tub when the first and second holes are aligned.
A method for non-invasive determination of fetal genetic content in a maternal cell-free nucleic acid sample, comprising: obtaining maternal genotypes or haplotypes from a maternal cellular sample comprising a set of chromosomes having genomic DNA; obtaining paternal genotypes or haplotypes from a paternal cellular sample comprising a set of chromosomes having genomic DNA; determining sequences of a maternal cell-free nucleic acid sample; determining fetal allele fractions of both transmitted and untransmitted maternal and paternal alleles from the sequences of the maternal cell-free nucleic acid sample using neighboring fetal alleles in an enumeration window, wherein (i) enumeration refers to a listing of bases determined from the sequences of the maternal cell-free nucleic acid sample, (ii) the bases are categorized by their allele-type, enumerated, and averaged together, (iii) enumeration is performed for each fetal allele from neighboring fetal alleles of the same allele-type on the same parental haplotypes, and (iv) enumeration window size is about 100 kilobases to about 20 megabases; and inputting the fractions into a Hidden Markov Model (HMM) to determine fetal genetic content, wherein fetal genetic content is a whole fetal genome, a fetal -ome, a fetal locus, or genotypes and haplotypes. obtaining maternal genotypes or haplotypes from a maternal cellular sample comprising a set of chromosomes having genomic DNA; obtaining paternal genotypes or haplotypes from a paternal cellular sample comprising a set of chromosomes having genomic DNA; determining sequences of a maternal cell-free nucleic acid sample; determining fetal allele fractions of both transmitted and untransmitted maternal and paternal alleles from the sequences of the maternal cell-free nucleic acid sample using neighboring fetal alleles in an enumeration window, wherein (i) enumeration refers to a listing of bases determined from the sequences of the maternal cell-free nucleic acid sample, (ii) the bases are categorized by their allele-type, enumerated, and averaged together, (iii) enumeration is performed for each fetal allele from neighboring fetal alleles of the same allele-type on the same parental haplotypes, and (iv) enumeration window size is about 100 kilobases to about 20 megabases; and inputting the fractions into a Hidden Markov Model (HMM) to determine fetal genetic content, wherein fetal genetic content is a whole fetal genome, a fetal -ome, a fetal locus, or genotypes and haplotypes.
A method of storing or disinfecting a contact lens which comprises bringing said contact lens into contact with a composition , with an aqueous antimicrobial contact lens storage and/or disinfection composition comprising at least one bioflavonoid, selected from naringin, neohesperidin and mixtures thereof optionally together with other bioflavonoids such that naringin and neohesperidin comprise in excess of 75 % w/w of the bioflavonoid, wherein the composition further comprises citric acid.
A method implemented by a node in a source Radio Access Network, RAN, to control handover of a mobile station, MS, from a source cell of the source RAN operating in packet switched, PS, domain to a target cell of a target RAN operating in PS domain, the target RAN supporting multi-operator core network, MOCN, the method comprising the steps of: transmitting system information by the node to the MS, the system information including a selected public land mobile network, PLMN, location area code, LAC, of the target cell, and routing area code, RAC, of the target cell, wherein the selected PLMN is the PLMN that will serve the MS in the target cell after the handover and the selected PLMN is a PLMN that is managed by one of a plurality of different operators of the MOCN supported in the target cell; and sending a PS handover command to the MS. transmitting system information by the node to the MS, the system information including a selected public land mobile network, PLMN, location area code, LAC, of the target cell, and routing area code, RAC, of the target cell, wherein the selected PLMN is the PLMN that will serve the MS in the target cell after the handover and the selected PLMN is a PLMN that is managed by one of a plurality of different operators of the MOCN supported in the target cell; and sending a PS handover command to the MS.
A protective cover for a rotor , the protective cover comprising: a first liner portion being able to contact and cover a first portion of the rotor ; a second liner portion positioned adjacent and at least partially aligned circumferentially with the first liner portion , the second liner portion being able to contact and cover a second portion of the rotor ; and an outer casing covering the first liner portion and the second liner portion , characterized in that the outer casing slidingly engages and forms a compression-fit around the first liner portion and the second liner portion . a first liner portion being able to contact and cover a first portion of the rotor ; a second liner portion positioned adjacent and at least partially aligned circumferentially with the first liner portion , the second liner portion being able to contact and cover a second portion of the rotor ; and an outer casing covering the first liner portion and the second liner portion , characterized in that the outer casing slidingly engages and forms a compression-fit around the first liner portion and the second liner portion .
A method of producing a mineral wool product comprising a multiple of lamellae, said method comprising the steps of: - providing a cured mineral wool web; - cutting said mineral wool web longitudinally into lamellae and the lamellae thus formed are turned 90° about their longitudinal axis where after the lamellae with this orientation are bonded together with the adhesive, - bonding the lamellae together by applying an adhesive on the surfaces of two adjacent lamellae, - curing the adhesive, wherein the adhesive comprises - at least one hydrocolloid being proteins from animal sources, including collagen, gelatine and hydrolysed gelatine, and the adhesive further comprises at least one phenol containing compound, such as tannin selected from one or more components from the group consisting of tannic acid, condensed tannins (proanthocyanidins), hydrolysable tannins, gallotannins, ellagitannins, complex tannins, and/or tannin originating from one or more of oak, chestnut, staghorn sumac and fringe cups, and/or - at least one hydrocolloid being proteins from animal sources, including collagen, gelatine and hydrolysed gelatine, and wherein the adhesive further comprises at least one enzyme selected from the group consisting of transglutaminase (EC 2.3.2.13), protein disulfide isomerase (EC 5.3.4.1), thiol oxidase (EC 1.8.3.2), polyphenol oxidase (EC 1.14.18.1), in particular catechol oxidase, tyrosine oxidase, and phenoloxidase, lysyl oxidase (EC 1.4.3.13), and peroxidase (EC 1.11.1.7), wherein the step of curing is carried out at temperatures from 5 to 95°C, such as 10 to 80°C, such as 20 to 60°C, such as 40 to 50°C. - providing a cured mineral wool web; - cutting said mineral wool web longitudinally into lamellae and the lamellae thus formed are turned 90° about their longitudinal axis where after the lamellae with this orientation are bonded together with the adhesive, - bonding the lamellae together by applying an adhesive on the surfaces of two adjacent lamellae, - curing the adhesive, wherein the adhesive comprises - at least one hydrocolloid being proteins from animal sources, including collagen, gelatine and hydrolysed gelatine, and the adhesive further comprises at least one phenol containing compound, such as tannin selected from one or more components from the group consisting of tannic acid, condensed tannins (proanthocyanidins), hydrolysable tannins, gallotannins, ellagitannins, complex tannins, and/or tannin originating from one or more of oak, chestnut, staghorn sumac and fringe cups, and/or - at least one hydrocolloid being proteins from animal sources, including collagen, gelatine and hydrolysed gelatine, and wherein the adhesive further comprises at least one enzyme selected from the group consisting of transglutaminase (EC 2.3.2.13), protein disulfide isomerase (EC 5.3.4.1), thiol oxidase (EC 1.8.3.2), polyphenol oxidase (EC 1.14.18.1), in particular catechol oxidase, tyrosine oxidase, and phenoloxidase, lysyl oxidase (EC 1.4.3.13), and peroxidase (EC 1.11.1.7),
A method for locomotion of at least one nanorobot through a biochemical environment, the method comprising: (a) introducing the at least one nanorobot into the biochemical environment; (b) inducing locomotion in the at least one nanorobot in the biochemical environment by applying a magnetic field; and (c) repeatedly heating a localized environment around the at least one nanorobot in the biochemical environment to induce deadhesion and locomotion to the at least one nanorobot. (a) introducing the at least one nanorobot into the biochemical environment; (b) inducing locomotion in the at least one nanorobot in the biochemical environment by applying a magnetic field; and (c) repeatedly heating a localized environment around the at least one nanorobot in the biochemical environment to induce deadhesion and locomotion to the at least one nanorobot.
An ancillary laundry composition comprising: a) 2 - 20 w.t.% functionalised fabric softening silicone; b) Less than 5 w.t.% surfactant; c) 0.35 - 10 w.t.% cationic cellulose polymer d) Water wherein the functionalised fabric softening silicone and cationic cellulose polymer are present in a ratio of 5:2 to 1:6 by weight. a) 2 - 20 w.t.% functionalised fabric softening silicone; b) Less than 5 w.t.% surfactant; c) 0.35 - 10 w.t.% cationic cellulose polymer d) Water
An anode active material for a lithium secondary battery, the anode active material comprising silicon secondary particles in which amorphous silicon primary particles and crystalline silicon primary particles are agglomerated, characterized in that the silicon secondary particles comprise spherical amorphous silicon primary particles and plate-shaped crystalline silicon primary particles.