mhurhangee/patent-ind-claim-en huggingface dataset:
Device for fixing lines , in particular electric cables, pipes or hoses, comprising at least two fastening parts, which can be connected to one another, which form a feedthrough in the mounted state, wherein the fastening parts comprise two clamp parts , which are hingedly connected to one another via at least one hinge and which each receive at least one clamping block , which has a groove on its outer surface, in which a section of a clamp part is positioned and which has on its inner side opposite the groove a channel in the form of a cylinder jacket section running axially at right angles to the groove to receive a line, wherein at the end of a clamp part opposite the hinged connection a tension lock is arranged, whose tensioning hook is engageable with a counter hook arranged at the end of the other clamp part opposite the hinged connection, characterised in that the clamping blocks are designed in the manner of a prism with trapezoidal bases or have a substantially cuboid shape.
A method of controlling a plurality of vehicles, performing the same mission cycle, performed by a control unit, or a group of control units, the method being characterized by - mapping a first set of planned degrees of progress (CCP1) to the cycle, - controlling the plurality of vehicles to start the cycle at respective different points in time, - determining deviations of the plurality of vehicles from a respective planned degree of progress (CCP1i) of the first set of planned degrees of progress (CCP1), - mapping, based on the determined deviations of the plurality of vehicles, a second set of planned degrees of progress (CCP2) to the cycle, and - controlling the plurality of vehicles so as to minimize deviations of the vehicles from a respective planned degree of progress (CCP2i) of the second set of planned degrees of progress (CCP2). - mapping a first set of planned degrees of progress (CCP1) to the cycle, - controlling the plurality of vehicles to start the cycle at respective different points in time, - determining deviations of the plurality of vehicles from a respective planned degree of progress (CCP1i) of the first set of planned degrees of progress (CCP1), - mapping, based on the determined deviations of the plurality of vehicles, a second set of planned degrees of progress (CCP2) to the cycle, and - controlling the plurality of vehicles so as to minimize deviations of the vehicles from a respective planned degree of progress (CCP2i) of the second set of planned degrees of progress (CCP2).
A method for adjusting the position of a magnet of an angle sensor relative to a stationary GMR sensor , comprising the magnet arranged on a rotatable rotor of a drive unit , which magnet is operatively connected to the GMR sensor , wherein the GMR sensor is formed together with an analysis circuit on a carrier plate , wherein a second magnetic field sensor for detecting a field strength of a variable magnetic field generated by the magnet is a component of the analysis circuit , wherein the GMR sensor is used to infer a position of the rotor by means of the analysis circuit from the variable magnetic field generated by the magnet attached to the rotor of the drive unit , characterised in that in order to adjust the position of the magnet attached to the rotor relative to the associated GMR sensor , the magnet is moved relative to the rotor and, at the same time, the changing magnetic field strength is continuously measured with the second magnetic field sensor, which is mounted at a small distance from the GMR sensor , wherein the magnetic field strength continuously measured by the second magnetic field sensor is compared with a magnetic field strength range specified for the GMR sensor and it is determined that the magnet is in an optimum operating range when it has reached a position at which the continuously measured field strength of the second magnetic field sensor remains within the specified field strength range of the GMR sensor .
A method for transmitting and receiving signals by a user equipment in a wireless communication system supporting carrier aggregation, the method comprising: receiving configuration information containing component carrier aggregation information; configuring a primary component carrier for a time division duplex, TDD, mode, in a licensed band and a secondary component carrier in a frequency division duplex, FDD, mode, in an unlicensed band, based on the configuration information; receiving control information for scheduling a plurality of downlink subframes on the secondary component carrier during a time duration in which the secondary component carrier occupies the unlicensed band; receiving downlink data on the secondary component carrier in the plurality of downlink subframes scheduled based on the control information, wherein the plurality of downlink subframes are scheduled based on multi-subframe scheduling, and wherein a number and locations of the plurality of downlink subframes in the secondary component carrier are configured based on TDD uplink-downlink configuration information of the primary component carrier; and transmitting a response to the downlink data in a subframe of the primary component carrier, wherein the response is transmitted at a hybrid automatic repeat and request acknowledgement/negative acknowledgement, HARQ-ACK, timing configured based on the TDD uplink-downlink configuration information of the primary component carrier. receiving configuration information containing component carrier aggregation information; configuring a primary component carrier for a time division duplex, TDD, mode, in a licensed band and a secondary component carrier in a frequency division duplex, FDD, mode, in an unlicensed band, based on the configuration information; receiving control information for scheduling a plurality of downlink subframes on the secondary component carrier during a time duration in which the secondary component carrier occupies the unlicensed band; receiving downlink data on the secondary component carrier in the plurality of downlink subframes scheduled based on the control information, wherein the plurality of downlink subframes are scheduled based on multi-subframe scheduling, and wherein a number and locations of the plurality of downlink subframes in the secondary component carrier are configured based on TDD uplink-downlink configuration information of the primary component carrier; and transmitting a response to the downlink data in a subframe of the primary component carrier, wherein the response is transmitted at a hybrid automatic repeat and request acknowledgement/negative acknowledgement, HARQ-ACK, timing configured based on the TDD uplink-downlink configuration information of the primary component carrier.
A low power voltage regulator for supplying operating voltage to circuits required to maintain data and/or be operational during an integrated circuit device low power sleep mode, the low power voltage regulator comprising: a first input receiving a first supply voltage (V DD , V DD-2 ); a second input receiving a second supply voltage; an output outputting a regulated voltage; a first N-channel field effect transistor (FET) (332; 432) having a drain, a source, and a gate, wherein the drain of the first N-channel FET (332; 432) is connected to the first input and the source of the first N-channel FET is connected to the output ; a first P-channel FET having a source, a drain, and a gate, wherein the drain and gate of the first p-channel FET are connected, and the source of the first p-channel FET is connected to the source of the first N-channel FET ; a first constant current source connected between ground and the gate of the first P-channel FET ; and a second P-channel FET (334; 434) having a drain, source, and gate, wherein the source of the second P-channel FET (334; 434) is coupled with the second input , the drain of the second P-channel FET (334; 434) with the output and the gate of the second P-channel FET is coupled with the gate of the first N-channel FET (332; 432); wherein the low power voltage regulator further comprises a feedback loop circuit (330 and 330; 450) coupled between the gate of the first P-channel FET and the gate of the first N-channel FET (332; 432) to maintain the output at a desired voltage operating point. a first input receiving a first supply voltage (V DD , V DD-2 ); a second input receiving a second supply voltage; an output outputting a regulated voltage; a first N-channel field effect transistor (FET) (332; 432) having a drain, a source, and a gate, wherein the drain of the first N-channel FET (332; 432) is connected to the first input and the source of the first N-channel FET is connected to the output ; a first P-channel FET having a source, a drain, and a gate, wherein the drain and gate of the first p-channel FET are connected, and the source of the first p-channel FET is connected to the source of the first N-channel FET ; a first constant current source connected between ground and the gate of the first P-channel FET ; and a second P-channel FET (334; 434) having a drain, source, and gate, wherein the source of the second P-channel FET (334; 434) is coupled with the second input , the drain of the second P-channel FET (334; 434) with the output and the gate of the second P-channel FET is coupled with the gate of the first N-channel FET (332; 432);
An antimicrobial composition comprising an antimicrobial agent, a pharmaceutically acceptable carrier material and a polymer, the polymer being an N-vinyl lactam copolymer of the general Formula I wherein n is 1 or 2; preferably wherein n is 1 0.88 ≤ x ≤ 0.97 and y =1- x; R 1 and R 2 are each independently hydrogen or methyl, preferably wherein R 1 and R 2 are both hydrogen, R 3 and R 4 are each independently selected from hydrogen, linear and branched alkyl or aralkyl groups, R 3 and R 4 comprising in total 4 to 40 C-atoms, preferably 8 to 36 C-atoms, with the exception that both R 3 and R 4 are hydrogen, wherein said copolymer is obtainable by solution polymerization of vinyl lactam monomer units (A) and hydrophobically derivatized maleate monomer units (B), wherein (A) and (B) are defined according to the following general formula: wherein said polymerization comprises the continuous feeding of a monomer mixture comprising 75-90 weight % of monomer (A) and 10-25 weight % of monomer (B), over a predetermined period of time to the reaction mixture. n is 1 or 2; preferably wherein n is 1 0.88 ≤ x ≤ 0.97 and y =1- x; R 1 and R 2 are each independently hydrogen or methyl, preferably wherein R 1 and R 2 are both hydrogen, R 3 and R 4 are each independently selected from hydrogen, linear and branched alkyl or aralkyl groups, R 3 and R 4 comprising in total 4 to 40 C-atoms, preferably 8 to 36 C-atoms, with the exception that both R 3 and R 4 are hydrogen, wherein said copolymer is obtainable by solution polymerization of vinyl lactam monomer units (A) and hydrophobically derivatized maleate monomer units (B), wherein (A) and (B) are defined according to the following general formula: wherein said polymerization comprises the continuous feeding of a monomer mixture comprising 75-90 weight % of monomer (A) and 10-25 weight % of monomer (B), over a predetermined period of time to the reaction mixture.
A display panel comprising: a substrate comprising a first opening (10H1) and a second opening (10H2) that are spaced apart from each other; a plurality of pixels (P) located in a display area (DA) around the first opening (10H1) and the second opening (10H2), each of the plurality of pixels (P) comprising a pixel circuit (PC) comprising a first thin-film transistor (T1) and a display element connected to the pixel circuit (PC); emission control lines (EL) located on the substrate , extending in a first direction (x), and spaced apart from each other by the first opening (10H1) and the second opening (10H2); and a first conductive layer (CL1) located in an intermediate area (MA) surrounding each of the first opening (10H1) and the second opening (10H2) to bypass the first opening (10H1) and the second opening (10H2), wherein the first conductive layer (CL1) electrically connects the emission control lines (EL) that are spaced apart from each other by the first opening (10H1) and the second opening (10H2) characterized by a bottom metal layer (BML) located between the substrate and the first thin-film transistor (T1), and the first conductive layer (CL1) comprises a same material as a material of the bottom metal layer (BML), wherein the first conductive layer (CL1) and the bottom metal layer (BML) are located on a same layer. a substrate comprising a first opening (10H1) and a second opening (10H2) that are spaced apart from each other; a plurality of pixels (P) located in a display area (DA) around the first opening (10H1) and the second opening (10H2), each of the plurality of pixels (P) comprising a pixel circuit (PC) comprising a first thin-film transistor (T1) and a display element connected to the pixel circuit (PC); emission control lines (EL) located on the substrate , extending in a first direction (x), and spaced apart from each other by the first opening (10H1) and the second opening (10H2); and a first conductive layer (CL1) located in an intermediate area (MA) surrounding each of the first opening (10H1) and the second opening (10H2) to bypass the first opening (10H1) and the second opening (10H2), wherein the first conductive layer (CL1) electrically connects the emission control lines (EL) that are spaced apart from each other by the first opening (10H1) and the second opening (10H2) characterized by a bottom metal layer (BML) located between the substrate and the first thin-film transistor (T1), and the first conductive layer (CL1) comprises a same material as a material of the bottom metal layer (BML), wherein the first conductive layer (CL1) and the bottom metal layer (BML) are located on a same layer.
A range finding system comprising: a range information acquisition unit configured to detect first range information by a TOF, time-of-flight, scheme; an image processor configured to integrate the first range information with second range information, the second range information being obtained through image processing of a plurality of stereo images captured by a plurality of imaging units ; an emitter configured to emit a light emission pulse; and a receiver configured to detect a light reception signal obtained as a result of the light emission pulse being reflected off an object, wherein a width of the light emission pulse emitted by the emitter and a sampling period in which the receiver samples the light reception signal are configured such that the width of the light emission pulse emitted by the emitter corresponds to a time equal to or longer than a time required for obtaining at least one or more samples of the light reception signal, and characterized in that the width of the light emission pulse emitted by the emitter is configured such that of a range resolution of the first range information and a range resolution of the second range information, the range resolution of the second range information is denser than the range resolution of the first range information, at a distance shorter than a predetermined distance. a range information acquisition unit configured to detect first range information by a TOF, time-of-flight, scheme; an image processor configured to integrate the first range information with second range information, the second range information being obtained through image processing of a plurality of stereo images captured by a plurality of imaging units ; an emitter configured to emit a light emission pulse; and a receiver configured to detect a light reception signal obtained as a result of the light emission pulse being reflected off an object, wherein a width of the light emission pulse emitted by the emitter and a sampling period in which the receiver samples the light reception signal are configured such that the width of the light emission pulse emitted by the emitter corresponds to a time equal to or longer than a time required for obtaining at least one or more samples of the light reception signal, and characterized in that the width of the light emission pulse emitted by the emitter is configured such that of a range resolution of the first range information and a range resolution of the second range information, the range resolution of the second range information is denser than the range resolution of the first range information, at a distance shorter than a predetermined distance.
A ventilation assembly comprising: a number of fan systems configured to purify air; and a number of air distribution assemblies , each air distribution assembly of the number of air distribution assemblies configured to be removably installed on a seatback of a passenger seat , and each air distribution assembly of the number of air distribution assemblies comprising: a pair of air distribution vents ; ductwork configured to receive air from at least one fan system of the number of fan systems and direct air to the pair of air distribution vents ; and a seat attachment device configured to removably couple the pair of air distribution vents to the seatback such that each air distribution vent is situated on opposite sides of the seatback for providing purified air to a seated passenger ; and wherein the ventilation assembly further comprises a number of mounting plates , wherein each mounting plate of the number of mounting plates is configured to attach to a seat track of an aircraft , and wherein each mounting plate of the number of mounting plates comprises a base configured to join to a fan system of the number of fan systems . a number of fan systems configured to purify air; and a number of air distribution assemblies , each air distribution assembly of the number of air distribution assemblies configured to be removably installed on a seatback of a passenger seat , and each air distribution assembly of the number of air distribution assemblies comprising: a pair of air distribution vents ; ductwork configured to receive air from at least one fan system of the number of fan systems and direct air to the pair of air distribution vents ; and a seat attachment device configured to removably couple the pair of air distribution vents to the seatback such that each air distribution vent is situated on opposite sides of the seatback for providing purified air to a seated passenger ; and wherein the ventilation assembly further comprises a number of mounting plates , wherein each mounting plate of the number of mounting plates is configured to attach to a seat track of an aircraft , and wherein each mounting plate of the number of mounting plates comprises a base configured to join to a fan system of the number of fan systems . a pair of air distribution vents ; ductwork configured to receive air from at least one fan system of the number of fan systems and direct air to the pair of air distribution vents ; and a seat attachment device configured to removably couple the pair of air distribution vents to the seatback such that each air distribution vent is situated on opposite sides of the seatback for providing purified air to a seated passenger ; and wherein the ventilation assembly further comprises a number of mounting plates , wherein each mounting plate of the number of mounting plates is configured to attach to a seat track of an aircraft , and wherein each mounting plate of the number of mounting plates comprises a base configured to join to a fan system of the number of fan systems .
A single phase motor comprising a stator comprising: a stator core comprising an outer ring portion (31; 321) and a plurality of teeth (33; 323) extending inwardly from the outer ring portion (31; 321); and a stator winding wound around the stator core ; and a rotor rotatable relative to the stator , the rotor comprising a plurality of rotor magnetic poles (55; 56); wherein each tooth (33; 323) of the stator comprises a tooth body extending inwardly from the outer ring portion (31; 321) and two pole shoes (35; 325) extending respectively from a distal end of the tooth body in two opposite circumferential directions of the rotor and facing the rotor , and the two pole shoes (35; 325) are asymmetrical about a center line of the tooth body such that when the stator winding is not energized the rotor is capable of stopping at an initial position where a center line of each rotor magnetic pole (55; 56) deviates from the center line of a corresponding tooth body ; the inner circumferential surfaces of the pole shoes (35; 325) are coaxial with the rotor such that an air gap (41; 130) with a substantially even thickness is formed between outer circumferential surfaces of the rotor magnetic poles (55; 56) and the inner circumferential surfaces of the pole shoes (35; 325); charcterized in that adjacent pole shoes (35; 325) of two adjacent teeth (33; 323) are separated from each other by a slot opening , and the slot opening has a width less than or equal to four times of the thickness of the air gap (41; 130). a stator core comprising an outer ring portion (31; 321) and a plurality of teeth (33; 323) extending inwardly from the outer ring portion (31; 321); and a stator winding wound around the stator core ; and
Any one or more of: i) soluble CD52 glycoprotein, ii) a fusion protein comprising soluble CD52 glycoprotein as a first protein, and a second protein; iii) a polynucleotide encoding the peptide portion of soluble CD52 glycoprotein of part i) or the fusion protein of part ii); iv) a vector comprising the polynucleotide of part iii); v) an isolated cell comprising the polynucleotide of part iii) or the vector of part iv); for use in treating or preventing multiple sclerosis or rheumatoid arthritis. i) soluble CD52 glycoprotein, ii) a fusion protein comprising soluble CD52 glycoprotein as a first protein, and a second protein; iii) a polynucleotide encoding the peptide portion of soluble CD52 glycoprotein of part i) or the fusion protein of part ii); iv) a vector comprising the polynucleotide of part iii); v) an isolated cell comprising the polynucleotide of part iii) or the vector of part iv); for use in treating or preventing multiple sclerosis or rheumatoid arthritis.
A method to identify candidate oral care buffering agents, compositions, solutions or systems useful to mitigate acidic conditions in the oral cavity, wherein the candidate oral care buffering agent, composition, solution or system is compared against a control oral care buffering composition, wherein the method comprises the steps of providing a first sample and a second sample selected from enamel from a human or bovine source; contacting the first sample with a measured quantity of acidic substance; contacting the first sample with the candidate oral care buffering agent, composition, solution or system; determining whether acid erosion has occurred to the first sample; contacting the second sample with the measured quantity of acidic substance; contacting the second sample with the control oral care buffering composition; determining whether acid erosion has occurred to the second sample, wherein said acid erosion in the first sample being less than or equal to that of the second sample indicates that the candidate oral care buffering agents, compositions, solutions or systems can be useful to mitigate acidic conditions in the oral cavity; and wherein the control oral care buffering composition consists of a solution of 0.375g L-arginine, 0.25g ZnO, 0.125g zinc citrate trihydrate and 24.25 mL deionized water.
A prophylactic or therapeutic drug for use in the treatment of a neurodegenerative disease, comprising a combination of a rifampicin compound selected from the group consisting of rifampicin and a salt of rifampicin, and resveratrol, wherein the neurodegenerative disease is selected from Alzheimer's disease, a tautopathy and a synucleinopathy.