mhurhangee/patent-ind-claim-en huggingface dataset:
A controller comprising: a floor-map-information storing unit storing floor map information, the floor map information indicating a position of each of a plurality of sensor terminals installed in a room, the room being air-conditioned by an air conditioner ; a user-registration-information storing unit storing user registration information, the user registration information comprising first identification information and positional information, the first identification information indicating a user, the user having potential to be in the room, the positional information indicating a position occupied by the user when the user is in the room; a user information acquiring unit acquiring user information from a user terminal used by the user, the user information comprising second identification information and target temperature information, the second identification information indicating the user using the user terminal ; and an air-conditioning control unit controlling, when the user using the user terminal is in the room, the air conditioner such that a temperature approaches a target temperature indicated in the target temperature information, the temperature being detected by one of the sensor terminals at a position near the user in the room, the controlling being performed on a basis of the floor map information, the user registration information, and the user information. a floor-map-information storing unit storing floor map information, the floor map information indicating a position of each of a plurality of sensor terminals installed in a room, the room being air-conditioned by an air conditioner ; a user-registration-information storing unit storing user registration information, the user registration information comprising first identification information and positional information, the first identification information indicating a user, the user having potential to be in the room, the positional information indicating a position occupied by the user when the user is in the room; a user information acquiring unit acquiring user information from a user terminal used by the user, the user information comprising second identification information and target temperature information, the second identification information indicating the user using the user terminal ; and an air-conditioning control unit controlling, when the user using the user terminal is in the room, the air conditioner such that a temperature approaches a target temperature indicated in the target temperature information, the temperature being detected by one of the sensor terminals at a position near the user in the room, the controlling being performed on a basis of the floor map information, the user registration information, and the user information.
Wiper blade , in particular for a window of a motor vehicle, comprising a spring bar , on which a holding means for fastening to a wiper arm is arranged, a wiper strip and a tilting web element , wherein the tilting web element is fastened to the wiper strip in a form-fitting manner, and is fastened to the spring bar and, as a result, connects the spring bar to the wiper strip , wherein the wiper strip and the tilting web element are connected in an articulated manner, wherein the wiper strip has a first wiper edge and a second wiper edge and, during operation, only the first wiper edge or the second wiper edge in each case rests on the window by deformation of the tilt web element , characterized in that the tilt web element encases the spring bar at least partially, in particular completely, and the tilting web element is formed in one piece with a wind deflection element.
Pressurising device of a direct fuel injection equipment (FIE) of a diesel internal combustion engine, said pressurising device comprising a digital inlet metering valve (DIMV 12) controlling an inlet fluid communication to a pump , said pump comprising: a pumping head defining a compression chamber having an inlet controlled by an inlet valve and an outlet controlled by an outlet valve , and a piston reciprocally moving along a pumping axis (X1), between BDC and TDC for performing a pumping cycle (C1); said cycle (C1) being the alternation of a filling phase (PF) and a compression phase (PC); and wherein, the DIMV is configured to: switch to an open state after said cycle (C1) initiates a filling phase (PF), and switch to a closed state when approaching the end of said filling phase; characterised in that , the digital inlet metering valve (DIMV) comprises an electro 2-way valve controlling the inlet into a buffer chamber connected to the inlet so that, in use, in open state of the DIMV the fuel fills said buffer chamber and from there fills the compression chamber which volume increases when in filling phase (PF). said cycle (C1) being the alternation of a filling phase (PF) and a compression phase (PC); and wherein, the DIMV is configured to: switch to an open state after said cycle (C1) initiates a filling phase (PF), and switch to a closed state when approaching the end of said filling phase; characterised in that , the digital inlet metering valve (DIMV) comprises an electro 2-way valve controlling the inlet into a buffer chamber connected to the inlet so that, in use, in open state of the DIMV the fuel fills said buffer chamber and from there fills the compression chamber which volume increases when in filling phase (PF).
A method of operating a position estimation entity, comprising: obtaining a first differential round trip time, RTT, measurement based on a first RTT measurement between a user equipment, UE, and a first wireless node and a second RTT measurement between the UE and a second wireless node ; obtaining a second differential RTT measurement based on a third RTT measurement between a third wireless node and the first wireless node and a fourth RTT measurement between the third wireless node and the second wireless node ; and determining a positioning estimate of the UE based at least in part on the first differential RTT measurement and the second differential RTT measurement. obtaining a first differential round trip time, RTT, measurement based on a first RTT measurement between a user equipment, UE, and a first wireless node and a second RTT measurement between the UE and a second wireless node ; obtaining a second differential RTT measurement based on a third RTT measurement between a third wireless node and the first wireless node and a fourth RTT measurement between the third wireless node and the second wireless node ; and determining a positioning estimate of the UE based at least in part on the first differential RTT measurement and the second differential RTT measurement.
A method of sensing a fingerprint pattern of a finger using a fingerprint sensing device comprising: an array of sensing elements for sensing said fingerprint pattern; an electrically conductive finger detecting structure ; finger detecting circuitry connected to said finger detecting structure for providing a finger detection signal (S d ) indicative of a capacitive coupling between said finger detecting structure and said finger ; and operation control circuitry connected to said sensing elements for activating said sensing elements to sense said fingerprint pattern, and connected to said finger detecting circuitry for evaluating said finger detection signal (S d ), wherein said method comprises the step of: activating, when said finger detection signal (S d ) changes from a first value indicating a capacitive coupling weaker than a predetermined first capacitive coupling to a second value indicating a capacitive coupling stronger than a predetermined second capacitive coupling stronger than the first capacitive coupling, at least a subset of said sensing elements to sense at least a portion of said fingerprint pattern, wherein said step of activating is only carried out when said finger detection signal (S d ) changes from said first value to said second value within a time duration shorter than a first predefined time duration. an array of sensing elements for sensing said fingerprint pattern; an electrically conductive finger detecting structure ; finger detecting circuitry connected to said finger detecting structure for providing a finger detection signal (S d ) indicative of a capacitive coupling between said finger detecting structure and said finger ; and operation control circuitry connected to said sensing elements for activating said sensing elements to sense said fingerprint pattern, and connected to said finger detecting circuitry for evaluating said finger detection signal (S d ), wherein said method comprises the step of: activating, when said finger detection signal (S d ) changes from a first value indicating a capacitive coupling weaker than a predetermined first capacitive coupling to a second value indicating a capacitive coupling stronger than a predetermined second capacitive coupling stronger than the first capacitive coupling, at least a subset of said sensing elements to sense at least a portion of said fingerprint pattern, wherein said step of activating is only carried out when said finger detection signal (S d ) changes from said first value to said second value within a time duration shorter than a first predefined time duration.
A cooling apparatus , comprising: a refrigeration machine configured to cool a cooling target object (M); a generator configured to generate an electromagnetic field or an electric field which acts on the cooling target object, intensity of the electromagnetic field and the electric field being variable; a controller configured to control operations of the refrigeration machine and the generator and perform a cooling operation of cooling the cooling target object by using the refrigeration machine in a state in which the electromagnetic field or the electric field is generated; and a temperature sensor configured to measure a temperature of the cooling target object, wherein the controller is configured to control the intensity of the electromagnetic field or the electric field generated by the generator in accordance with the temperature measured by the temperature sensor in the cooling operation, wherein in the cooling operation, the controller is configured to control the intensity in accordance with a change rate of the temperature, characterized in that in the cooling operation, the controller is configured to detect a sign indicating that the cooling target object is to enter a frozen state in accordance with a change rate of the temperature and to increase the intensity when the sign is detected. a refrigeration machine configured to cool a cooling target object (M); a generator configured to generate an electromagnetic field or an electric field which acts on the cooling target object, intensity of the electromagnetic field and the electric field being variable; a controller configured to control operations of the refrigeration machine and the generator and perform a cooling operation of cooling the cooling target object by using the refrigeration machine in a state in which the electromagnetic field or the electric field is generated; and a temperature sensor configured to measure a temperature of the cooling target object, wherein the controller is configured to control the intensity of the electromagnetic field or the electric field generated by the generator in accordance with the temperature measured by the temperature sensor in the cooling operation, wherein in the cooling operation, the controller is configured to control the intensity in accordance with a change rate of the temperature, characterized in that in the cooling operation, the controller is configured to detect a sign indicating that the cooling target object is to enter a frozen state in accordance with a change rate of the temperature and to increase the intensity when the sign is detected.
Use of an agent in an in vitro method for diagnosing pre-onset Alzheimer's disease or a risk of developing Alzheimer's disease, the agent comprising a compound having an activity of binding to a phosphorylation site of a substrate protein, and wherein the compound is an antibody capable of binding to the phosphorylation site of the substrate protein, and the substrate protein is MARCKS. wherein the compound is an antibody capable of binding to the phosphorylation site of the substrate protein, and the substrate protein is MARCKS.
A label sheet assembly comprising: a facestock layer having first and second sides, the facestock layer including at least one cut line that defines at least one label and a matrix portion on the first side wherein the facestock layer is configured to receive indicia thereon; an adhesive layer along the second side; a liner sheet layer having top and bottom surfaces , the top surface attached to the adhesive layer along the facestock layer wherein the label sheet assembly includes a first edge and opposite second edge along with a third edge and opposite fourth edge ; and at least one surface feature along the bottom surface of the liner sheet layer characterised in that the at least one surface feature includes a printed texture formed into a pattern that provides a zone of increased tactile sensitivity and including a first vertical surface feature , a second vertical surface feature and a third vertical surface feature wherein the at least one vertical surface feature extends generally parallel to the third edge between the first edge and the second edge and the vertical surface features are aligned along a process direction as the label sheet is to be processed through a printer. a facestock layer having first and second sides, the facestock layer including at least one cut line that defines at least one label and a matrix portion on the first side wherein the facestock layer is configured to receive indicia thereon; an adhesive layer along the second side; a liner sheet layer having top and bottom surfaces , the top surface attached to the adhesive layer along the facestock layer wherein the label sheet assembly includes a first edge and opposite second edge along with a third edge and opposite fourth edge ; and at least one surface feature along the bottom surface of the liner sheet layer characterised in that the at least one surface feature includes a printed texture formed into a pattern that provides a zone of increased tactile sensitivity and including a first vertical surface feature , a second vertical surface feature and a third vertical surface feature wherein the at least one vertical surface feature extends generally parallel to the third edge between the first edge and the second edge and the vertical surface features are aligned along a process direction as the label sheet is to be processed through a printer.
A method for detecting at least one mutation in a plurality of cancer-related genes in a subject comprising (a) extracting genomic DNA from a formalin fixed paraffin-embedded tumor sample obtained from the subject; (b) generating a library comprising amplicons corresponding to each of the plurality of cancer-related genes, said plurality of cancer-related genes comprising AKT1, ERBB2, FOXL2, IDH2, NRAS, RET, ALK, ERBB4, GNA11, KIT, PDGFRA, SMO, BRAF, FBXW7, GNAQ, KRAS, PIK3CA, STK11, CTNNB1, FGFR2, GNAS, MAP2K1, PIK3R1, TP53, DDR2, FGFR3, HRAS, MET, PTCH1, EGFR, FGFR4, IDH1, NOTCH1, and PTEN, wherein (i) generating said library involves multiplexed polymerase chain reaction and proceeds independently of using a bait set comprising nucleic acid sequences that are complementary to at least one of the plurality of amplicons; and (ii) the quality of the genomic DNA extracted from the formalin fixed paraffin-embedded tumor sample is not assessed using quantitative PCR prior to generating the library; (c) ligating an adapter sequence to the ends of the plurality of amplicons; and (d) detecting at least one mutation in at least one of the plurality of amplicons using high throughput massive parallel sequencing, wherein the plurality of amplicons is generated by at least two primer pairs disclosed in Table 1, Table 2, or a combination thereof. (a) extracting genomic DNA from a formalin fixed paraffin-embedded tumor sample obtained from the subject; (b) generating a library comprising amplicons corresponding to each of the plurality of cancer-related genes, said plurality of cancer-related genes comprising AKT1, ERBB2, FOXL2, IDH2, NRAS, RET, ALK, ERBB4, GNA11, KIT, PDGFRA, SMO, BRAF, FBXW7, GNAQ, KRAS, PIK3CA, STK11, CTNNB1, FGFR2, GNAS, MAP2K1, PIK3R1, TP53, DDR2, FGFR3, HRAS, MET, PTCH1, EGFR, FGFR4, IDH1, NOTCH1, and PTEN, wherein (i) generating said library involves multiplexed polymerase chain reaction and proceeds independently of using a bait set comprising nucleic acid sequences that are complementary to at least one of the plurality of amplicons; and (ii) the quality of the genomic DNA extracted from the formalin fixed paraffin-embedded tumor sample is not assessed using quantitative PCR prior to generating the library; (i) generating said library involves multiplexed polymerase chain reaction and proceeds independently of using a bait set comprising nucleic acid sequences that are complementary to at least one of the plurality of amplicons; and (ii) the quality of the genomic DNA extracted from the formalin fixed paraffin-embedded tumor sample is not assessed using quantitative PCR prior to generating the library; (c) ligating an adapter sequence to the ends of the plurality of amplicons; and (d) detecting at least one mutation in at least one of the plurality of amplicons using high throughput massive parallel sequencing, wherein the plurality of amplicons is generated by at least two primer pairs disclosed in Table 1, Table 2, or a combination thereof.
A surface-modified inorganic nitride comprising: - an inorganic nitride; and - adsorbed onto a surface of the inorganic nitride,a compound of the formula (X-L 1 -) m -Y-(L 2 -Z) n (I) wherein X each independently is a group selected from hydroxyl, carboxylic acid, phosphonic acid, phosphoric acid, phosphinic acid, sulfonic acid, thiol and amino; Y each independently is an aromatic hydrocarbon ring or heteroaromatic ring; Z each independently is a group selected from aldehyde, succinimide, onium, halogenated alkyl, halogen, nitrile, acryloyl, methacryloyl, oxetanyl, vinyl, alkynyl, maleimide and a group having a carbonate group; L 1 , L 2 each independently are a single bond, -O-, -CO-, -S-, -CS-, -NR 11 - wherein R 11 is H or alkyl, -N=N-, a divalent hydrocarbon group, or a divalent linking group obtained by combining two or more thereof; and m, n each independently are an integer of ≥ 1; and if X is amino, then Z is not halogen. - an inorganic nitride; and - adsorbed onto a surface of the inorganic nitride,a compound of the formula (X-L 1 -) m -Y-(L 2 -Z) n (I) wherein X each independently is a group selected from hydroxyl, carboxylic acid, phosphonic acid, phosphoric acid, phosphinic acid, sulfonic acid, thiol and amino; Y each independently is an aromatic hydrocarbon ring or heteroaromatic ring; Z each independently is a group selected from aldehyde, succinimide, onium, halogenated alkyl, halogen, nitrile, acryloyl, methacryloyl, oxetanyl, vinyl, alkynyl, maleimide and a group having a carbonate group; L 1 , L 2 each independently are a single bond, -O-, -CO-, -S-, -CS-, -NR 11 - wherein R 11 is H or alkyl, -N=N-, a divalent hydrocarbon group, or a divalent linking group obtained by combining two or more thereof; and m, n each independently are an integer of ≥ 1; and if X is amino, then Z is not halogen. X each independently is a group selected from hydroxyl, carboxylic acid, phosphonic acid, phosphoric acid, phosphinic acid, sulfonic acid, thiol and amino; Y each independently is an aromatic hydrocarbon ring or heteroaromatic ring; Z each independently is a group selected from aldehyde, succinimide, onium, halogenated alkyl, halogen, nitrile, acryloyl, methacryloyl, oxetanyl, vinyl, alkynyl, maleimide and a group having a carbonate group; L 1 , L 2 each independently are a single bond, -O-, -CO-, -S-, -CS-, -NR 11 - wherein R 11 is H or alkyl, -N=N-, a divalent hydrocarbon group, or a divalent linking group obtained by combining two or more thereof; and m, n each independently are an integer of ≥ 1;
A water-activated power generating device, comprising: a conductive cap; a top plate having an air vent; a silicon slice having a cut; a first water storage element; a fixing ring sandwiched by the silicon slice and the first water storage element and having an inner space; a conductive rod penetrating the top plate, the silicon slice, the fixing ring and the first water storage element, and electrically connected to the conductive cap; a hollow electrode structure; an isolation film disposed adjacent to an inner surface of the electrode structure; electrolytic powder disposed in a space between the isolation layer and the conductive rod; and a bottom conductive plate disposed at the bottom of the electrode structure and electrically connected to the inner surface of the electrode structure. a conductive cap; a top plate having an air vent; a silicon slice having a cut; a first water storage element; a fixing ring sandwiched by the silicon slice and the first water storage element and having an inner space; a conductive rod penetrating the top plate, the silicon slice, the fixing ring and the first water storage element, and electrically connected to the conductive cap; a hollow electrode structure; an isolation film disposed adjacent to an inner surface of the electrode structure; electrolytic powder disposed in a space between the isolation layer and the conductive rod; and a bottom conductive plate disposed at the bottom of the electrode structure and electrically connected to the inner surface of the electrode structure.
A method of determining a concentration of one or more analytes in a whole blood sample, the method comprising: introducing the sample through a channel , wherein the channel has a depth in the range of 10 to 30 micrometers; generating a cell-free plasma region in the channel , wherein the cell-free plasma region is generated in the channel based on rouleaux effect, wherein the cell-free plasma region comprises the one or more analytes; illuminating the sample with light having one or more wavelengths; obtaining an image of the illuminated sample at each of the wavelengths; and analyzing the image to determine the concentration of the one or more analytes, wherein analyzing the image comprises: detecting a cell-free plasma region in the image; determining pixel intensity values of plasma region at each of the varying wavelengths; and determining the concentration of the one or more analytes based on the relative pixel intensity values. introducing the sample through a channel , wherein the channel has a depth in the range of 10 to 30 micrometers; generating a cell-free plasma region in the channel , wherein the cell-free plasma region is generated in the channel based on rouleaux effect, wherein the cell-free plasma region comprises the one or more analytes; illuminating the sample with light having one or more wavelengths; obtaining an image of the illuminated sample at each of the wavelengths; and analyzing the image to determine the concentration of the one or more analytes, wherein analyzing the image comprises: detecting a cell-free plasma region in the image; determining pixel intensity values of plasma region at each of the varying wavelengths; and determining the concentration of the one or more analytes based on the relative pixel intensity values. detecting a cell-free plasma region in the image; determining pixel intensity values of plasma region at each of the varying wavelengths; and determining the concentration of the one or more analytes based on the relative pixel intensity values.