mhurhangee/patent-ind-claim-en huggingface dataset:
A sintered magnet production system including: a filling device for filling a cavity of a container with alloy powder of a material for a sintered magnet; an orienting device for orienting the alloy powder held in the cavity by applying a magnetic field, the orienting device not having a means for applying a mechanical pressure to the alloy powder; and a sintering device for sintering the alloy powder oriented by the orienting device , by heating the alloy powder, the sintering device not having a means for applying a mechanical pressure to the alloy powder, wherein: the orienting device includes: a) an air-core coil ; and b) two ferromagnetic members made of a ferromagnetic material to be arranged within the air-core coil at respective open ends of the air-core coil with a space for containing the container in between, the respective ferromagnetic member being composed of laminated plates made of a ferromagnetic material, or being composed of a case filled with magnetic particles of iron , with interfaces of respective plates in the laminated plates intersecting with an end surface of the air-core coil . a) an air-core coil ; and b) two ferromagnetic members made of a ferromagnetic material to be arranged within the air-core coil at respective open ends of the air-core coil with a space for containing the container in between, the respective ferromagnetic member being composed of laminated plates made of a ferromagnetic material, or being composed of a case filled with magnetic particles of iron , with interfaces of respective plates in the laminated plates intersecting with an end surface of the air-core coil .
An information transmission method, comprising: receiving downlink control information corresponding to a message, wherein the receiving downlink control information comprises: when a reception time window of the message starts or ends within a continuous monitoring time period of a control resource set CORESET corresponding to the message, the downlink control information is not received on the CORESET; receiving the message corresponding to the received downlink control information, wherein the receiving downlink control information corresponding to a message comprises: the downlink control information is received on a CORESET completely located in the reception time window other than the CORESET corresponding to the continuous monitoring time period. receiving downlink control information corresponding to a message, wherein the receiving downlink control information comprises: when a reception time window of the message starts or ends within a continuous monitoring time period of a control resource set CORESET corresponding to the message, the downlink control information is not received on the CORESET; receiving the message corresponding to the received downlink control information, wherein the receiving downlink control information corresponding to a message comprises: the downlink control information is received on a CORESET completely located in the reception time window other than the CORESET corresponding to the continuous monitoring time period.
An enrollment method for bitstring generation by an integrated circuit, comprising the step of: (a) measuring a plurality of launch-capture interval path timing values for a physically unclonable function; (b) selecting randomly two path timing values of the physically unclonable function; (c) calculating a difference value between the two path timing values; (d) classifying the difference value as 'invalid' if it is less than a margin threshold value and 'valid' if it is greater than a margin threshold value, wherein the margin threshold value is equal to a worst case temperature-voltage noise level, the worst case being the maximum temperature-voltage noise value produced by the integrated circuit; (e) constructing a helper bitstring consisting of the 'valid' difference values; (f) generating a response bitstring by assigning a '0' bit when the difference value is positive and a '1' bit when the difference value is negative; (g) performing steps (a) - (f) at two or more supply voltage regulators to obtain two or more response bitstrings; (h) identifying inconsistencies in bits of the two or more response bitstrings using the helper bitstring; and (i) removing the inconsistent bits in each of the two or more response bitstrings to reduce the number of bit flips. (a) measuring a plurality of launch-capture interval path timing values for a physically unclonable function; (b) selecting randomly two path timing values of the physically unclonable function; (c) calculating a difference value between the two path timing values; (d) classifying the difference value as 'invalid' if it is less than a margin threshold value and 'valid' if it is greater than a margin threshold value, wherein the margin threshold value is equal to a worst case temperature-voltage noise level, the worst case being the maximum temperature-voltage noise value produced by the integrated circuit; (e) constructing a helper bitstring consisting of the 'valid' difference values; (f) generating a response bitstring by assigning a '0' bit when the difference value is positive and a '1' bit when the difference value is negative; (g) performing steps (a) - (f) at two or more supply voltage regulators to obtain two or more response bitstrings; (h) identifying inconsistencies in bits of the two or more response bitstrings using the helper bitstring; and (i) removing the inconsistent bits in each of the two or more response bitstrings to reduce the number of bit flips.
Apparatus , configured to detect the surroundings, in particular to detect the surroundings of a vehicle, having a housing , at least one sensor disposed within the housing , wherein the housing has a transmitter/receiver window and a cover , wherein the cover is configured so as to be transparent to sensor signals of the sensor, and wherein the cover is configured to cover the transmitter/receiver window in relation to external surroundings of the apparatus , wherein the apparatus has a cleaning unit which is disposed on an external side of the housing and by means of a drive unit is movable relative to the housing , wherein the cleaning unit is configured to remove contaminations from the cover , and wherein the cleaning unit has at least one first nozzle (32, 32', 32") which is configured to spray a cleaning liquid , in particular water, onto the cover , and wherein the cleaning unit has at least one second nozzle which is configured to blow a gas , in particular compressed air, onto the cover , characterized in that the cleaning unit has two second nozzles and at least three first nozzles (32, 32', 32"), wherein the first and the second nozzles (32, 32', 32", 33, 33') in terms of a movement direction of the cleaning unit are disposed in series, and wherein the first nozzles (32, 32', 32") are disposed between the second nozzles , wherein the first and the second nozzles (32, 32', 32", 33, 33') are actuatable as a function of the current movement direction of the cleaning unit. a housing , at least one sensor disposed within the housing , wherein the housing has a transmitter/receiver window and a cover , wherein the cover is configured so as to be transparent to sensor signals of the sensor, and wherein the cover is configured to cover the transmitter/receiver window in relation to external surroundings of the apparatus , wherein the apparatus has a cleaning unit which is disposed on an external side of the housing and by means of a drive unit is movable relative to the housing , wherein the cleaning unit is configured to remove contaminations from the cover , and wherein the cleaning unit has at least one first nozzle (32, 32', 32") which is configured to spray a cleaning liquid , in particular water, onto the cover , and wherein the cleaning unit has at least one second nozzle which is configured to blow a gas , in particular compressed air, onto the cover , characterized in that the cleaning unit has two second nozzles and at least three first nozzles (32, 32', 32"), wherein the first and the second nozzles (32, 32', 32", 33, 33') in terms of a movement direction of the cleaning unit are disposed in series, and wherein the first nozzles (32, 32', 32") are disposed between the second nozzles , wherein the first and the second nozzles (32, 32', 32", 33, 33') are actuatable as a function of the current movement direction of the cleaning unit.
A rotary compressor comprising: - a sealed vertically-placed cylindrical compressor housing which is provided with a discharging unit of a refrigerant on a top portion and which is provided with an inlet unit of the refrigerant on a bottom portion; - a rotary-type compressing unit which is disposed on the bottom portion of the compressor housing, compresses the refrigerant which is sucked in from the inlet portion, and discharges the refrigerant from the discharging unit; - a motor which is disposed on the top portion of the compressor housing and which drives the rotary-type compressing unit; - a vertically-placed cylindrical accumulator which is fixed to a side portion of the compressor housing and which is connected to the inlet portion; and - an attachment leg which is fixed to the bottom portion of the compressor housing and includes three locking holes which are locking holes to which three corresponding elastic supporting members , which support the compressor housing, are locked and which are disposed to be separated from each other in a circumferential direction on an outside in a radial direction of the compressor housing, wherein, of the three locking holes, a distance of a first locking hole which is disposed closest to the accumulator from a housing center, is greater than a distance of each of the other two locking holes from the housing center, characterized in that a pitch angle (α1) between the first locking hole and a second locking hole which interposes the accumulator between the first locking hole and the second locking hole, is smaller than a pitch angle (α3) between the first locking hole and a third locking hole , and is smaller than a pitch angle (α2) between the second locking hole and the third locking hole , or the first locking hole is disposed in a position no closer to an outside in the radial direction than the accumulator . - a sealed vertically-placed cylindrical compressor housing which is provided with a discharging unit of a refrigerant on a top portion and which is provided with an inlet unit of the refrigerant on a bottom portion; - a rotary-type compressing unit which is disposed on the bottom portion of the compressor housing, compresses the refrigerant which is sucked in from the inlet portion, and discharges the refrigerant from the discharging unit; - a motor which is disposed on the top portion of the compressor housing and which drives the rotary-type compressing unit; - a vertically-placed cylindrical accumulator which is fixed to a side portion of the compressor housing and which is connected to the inlet portion; and - an attachment leg which is fixed to the bottom portion of the compressor housing and includes three locking holes which are locking holes to which three corresponding elastic supporting members , which support the compressor housing, are locked and which are disposed to be separated from each other in a circumferential direction on an outside in a radial direction of the compressor housing,
A processor-implemented method for authenticating humans based on their behavioral pattern, the method comprising: receiving sensor data using a plurality of sensors relating to a human ; identifying a corrupt sensor data in the received sensor data , wherein the corrupt sensor data is identified by referring to gaps in the received sensor data that is caused due to sensor failure; substituting the identified corrupt sensor data in the received sensor data with a correct sensor data using Long Short-Term Memory (LSTM), to generate corrected sensor data ; generating a semantic vector representation of the corrected sensor data ; optimizing size of the semantic vector representation of the corrected sensor data to generate an optimized vector data using an auto encoder ; predicting a behavior time series from the optimized vector data using a Long Short-Term Memory techniques ; generating an error signal based on the behavior time series ; providing a classifier for classification ; and authenticating and identifying humans using the classifier based on the error signal . receiving sensor data using a plurality of sensors relating to a human ; identifying a corrupt sensor data in the received sensor data , wherein the corrupt sensor data is identified by referring to gaps in the received sensor data that is caused due to sensor failure; substituting the identified corrupt sensor data in the received sensor data with a correct sensor data using Long Short-Term Memory (LSTM), to generate corrected sensor data ; generating a semantic vector representation of the corrected sensor data ; optimizing size of the semantic vector representation of the corrected sensor data to generate an optimized vector data using an auto encoder ; predicting a behavior time series from the optimized vector data using a Long Short-Term Memory techniques ; generating an error signal based on the behavior time series ; providing a classifier for classification ; and authenticating and identifying humans using the classifier based on the error signal .
A conveying device for an additive manufacturing machine , wherein the conveying device is configured for conveying a semi-finished product which is composed of a manufacturing material that is to be processed by the additive manufacturing machine and has a semi-finished product longitudinal axis, wherein the conveying device comprises a longitudinal conveying mechanism which is configured for conveying the semi-finished product along a conveying direction parallel to the semi-finished product longitudinal axis, wherein the longitudinal conveying mechanism has at least one running conveying means which extends along the conveying direction and which has a conveying portion that is configured for engage a semi-finished product portion of the semi-finished product in such a manner that the semi-finished product is able to be moved in the conveying direction, wherein the longitudinal conveying device has a contact pressure device which is configured for pushing the conveying means against the semi-finished product so as to move the semi-finished product characterized in that the contact pressure device has a fluid chamber which is able to be supplied with a fluid pressure, wherein the fluid chamber which is able to be deformed by the fluid pressure and which in a supplied state is configured for urging the conveying means in the direction toward the semi-finished product so as to move the semi-finished product , and in particular in a non-supplied state for not exerting on the conveying means a force which is sufficient for moving the semi-finished product .
A machine for breaking and reducing the bulk size of one or more objects , the machine comprising: a frame ; a reception chamber for receiving and accommodating the one or more objects to be broken; a drum rotatably coupled to the frame and configured to oscillate relative to the frame between a first, fully retracted position and a second, fully advanced position about a longitudinal rotational axis; a cutting member coupled to the drum and extending therefrom, the cutting member being configured to penetrate through one or more of the objects in the reception chamber during operation as the drum rotates from the first position to the second position during each oscillation cycle, wherein the cutting member comprises a cutting head having a main body extending laterally from the drum and extending longitudinally along a length of the drum ; and a breaking screen comprising a plurality of breaking plates extending along a plane substantially orthogonal to a longitudinal axis of the drum configured to cause further breakdown of the one or more pieces of the one or more objects during operation as the drum rotates toward the second position during each oscillation cycle and forces the one or more pieces against the breaking plates , wherein each breaking plate comprises a curved portion configured to wrap around a portion of a circumference of the drum and the series of breaking plates form a magazine within a path traversed by the cutting head during operation for supporting the one or more objects received within the reception chamber during operation. a frame ; a reception chamber for receiving and accommodating the one or more objects to be broken; a drum rotatably coupled to the frame and configured to oscillate relative to the frame between a first, fully retracted position and a second, fully advanced position about a longitudinal rotational axis; a cutting member coupled to the drum and extending therefrom, the cutting member being configured to penetrate through one or more of the objects in the reception chamber during operation as the drum rotates from the first position to the second position during each oscillation cycle, wherein the cutting member comprises a cutting head having a main body extending laterally from the drum and extending longitudinally along a length of the drum ; and a breaking screen comprising a plurality of breaking plates extending along a plane substantially orthogonal to a longitudinal axis of the drum configured to cause further breakdown of the one or more pieces of the one or more objects during operation as the drum rotates toward the second position during each oscillation cycle and forces the one or more pieces against the breaking plates , wherein each breaking plate comprises a curved portion configured to wrap around a portion of a circumference of the drum and the series of breaking plates form a magazine within a path traversed by the cutting head during operation for supporting the one or more objects received within the reception chamber during operation.
Cooling system for a transport unit, comprising: a supply air opening for the outflow of conditioned air (SA), a circulating-air opening for the inflow of air (RA) from a space to be conditioned, an air duct that interconnects the circulating-air opening and the supply air opening , wherein an evaporator element of a cooling circuit is arranged in the air duct , wherein at least one first fresh air opening for the inflow of ambient air (FA) into the air duct is provided, characterised in that at least two fresh air openings are provided in total, wherein the first fresh air opening is arranged such that ambient air (FA) flowing in through the first fresh air opening reaches the supply air opening without leaving the air duct , only after flowing through the evaporator element , and a second fresh air opening is arranged such that ambient air (FA) flowing in through the second fresh air opening reaches the supply air opening without leaving the air duct , without flowing through the evaporator element . a supply air opening for the outflow of conditioned air (SA), a circulating-air opening for the inflow of air (RA) from a space to be conditioned, an air duct that interconnects the circulating-air opening and the supply air opening , wherein an evaporator element of a cooling circuit is arranged in the air duct , wherein at least one first fresh air opening for the inflow of ambient air (FA) into the air duct is provided, characterised in that at least two fresh air openings are provided in total, wherein the first fresh air opening is arranged such that ambient air (FA) flowing in through the first fresh air opening reaches the supply air opening without leaving the air duct , only after flowing through the evaporator element , and a second fresh air opening is arranged such that ambient air (FA) flowing in through the second fresh air opening reaches the supply air opening without leaving the air duct , without flowing through the evaporator element .
A method for managing an application in a digital device , comprising: receiving identification information of an accessory device from the accessory device if the accessory device is connected to the digital device; searching , based on the identification information of the accessory device, for at least one application having a function of controlling the accessory device from among at least one application installed in the digital device; acquiring information about at least one new application, which has a function of controlling the accessory device but is not installed in the digital device, from an application providing server, and displaying at least one installed application icon corresponding to the searched at least one application having a function of controlling the accessory device according to a result of the search, at least one new application icon corresponding to the at least one new application, and install icon for downloading the at least one new application in the proximity of the at least one new application icon, wherein the at least one application having a function of controlling the accessory device can control operation of the accessory device by executing the function. receiving identification information of an accessory device from the accessory device if the accessory device is connected to the digital device; searching , based on the identification information of the accessory device, for at least one application having a function of controlling the accessory device from among at least one application installed in the digital device; acquiring information about at least one new application, which has a function of controlling the accessory device but is not installed in the digital device, from an application providing server, and displaying at least one installed application icon corresponding to the searched at least one application having a function of controlling the accessory device according to a result of the search, at least one new application icon corresponding to the at least one new application, and install icon for downloading the at least one new application in the proximity of the at least one new application icon, wherein the at least one application having a function of controlling the accessory device can control operation of the accessory device by executing the function.
A method of making a garment material, the method comprising: providing a first layer , which is a shaped polymer; applying to the first layer a liner formed of yarn and having interstices through it; applying to the liner a fluid polymeric material that permeates the interstices; allowing the fluid polymeric material to solidify to thereby form a second layer in which the liner is embedded in the solid polymeric material; and applying fibres to form a textile layer , such that the second layer is located between the first layer and the textile layer. providing a first layer , which is a shaped polymer; applying to the first layer a liner formed of yarn and having interstices through it; applying to the liner a fluid polymeric material that permeates the interstices; allowing the fluid polymeric material to solidify to thereby form a second layer in which the liner is embedded in the solid polymeric material; and applying fibres to form a textile layer , such that the second layer is located between the first layer and the textile layer.