mhurhangee/patent-ind-claim-en huggingface dataset:
A method of writing data to a memory device and reading data from the memory device , comprising: issuing a challenge to a PUF device during a power-up process in order to derive a PUF response; error correcting the PUF response; providing delinearized addresses of code and data segments, by means of a delinearization algorithm using the error corrected PUF response, to the memory device , wherein the delinearized addresses are used to write the data to during a write operation and the same addresses are selected during a read operation for reading the data; and masking data to be written to the memory device , by means of a masking module using the error corrected PUF response, during write operation wherein the data is masked with the error corrected PUF response using the XOR operator and de-masking data to be read from the memory device , by means of the masking module using the error corrected PUF response, during read operation and performing a check-sum verification of the read data wherein the data is revealed out of masked data with the error corrected PUF response using the XOR operator; and generating a reset signal in case of data falsification in order to reset a processor which interacts with the memory device . issuing a challenge to a PUF device during a power-up process in order to derive a PUF response; error correcting the PUF response; providing delinearized addresses of code and data segments, by means of a delinearization algorithm using the error corrected PUF response, to the memory device , wherein the delinearized addresses are used to write the data to during a write operation and the same addresses are selected during a read operation for reading the data; and masking data to be written to the memory device , by means of a masking module using the error corrected PUF response, during write operation wherein the data is masked with the error corrected PUF response using the XOR operator and de-masking data to be read from the memory device , by means of the masking module using the error corrected PUF response, during read operation and performing a check-sum verification of the read data wherein the data is revealed out of masked data with the error corrected PUF response using the XOR operator;
An air-conditioning apparatus , comprising: an outdoor unit including a compressor , and a heat source-side heat exchanger ; a heat medium relay unit including an intermediate heat exchanger , an expansion device , and a pump ; a branch unit including a heat medium flow regulating device; and at least one indoor unit including a use-side heat exchanger , wherein the compressor , the heat source-side heat exchanger , the expansion device , and a refrigerant flow path of the intermediate heat exchanger , are connected by a refrigerant pipe to form a refrigerant cycle circuit (A) through which refrigerant circulates, wherein a heat medium flow path of the intermediate heat exchanger , the branch unit , and the use-side heat exchanger are connected by a heat medium pipe to form a heat medium cycle circuit (B) through which a heat medium different from the refrigerant circulates, and wherein the outdoor unit and the heat medium relay unit that form the refrigerant cycle circuit (A) are arranged in a space separated from an air-conditioned space , are formed as components separate from the branch unit and the at least one indoor unit , are arranged in a space separated from the branch unit and the at least one indoor unit , characterized in one of the following: - the outdoor unit and the heat medium relay unit are arranged in a space outside a building; or - the heat medium relay unit is arranged in an indoor space that is separated from any air-conditioned space and from any space above a ceiling of any air-conditioned space . an outdoor unit including a compressor , and a heat source-side heat exchanger ; a heat medium relay unit including an intermediate heat exchanger , an expansion device , and a pump ; a branch unit including a heat medium flow regulating device; and at least one indoor unit including a use-side heat exchanger , wherein the compressor , the heat source-side heat exchanger , the expansion device , and a refrigerant flow path of the intermediate heat exchanger , are connected by a refrigerant pipe to form a refrigerant cycle circuit (A) through which refrigerant circulates, wherein a heat medium flow path of the intermediate heat exchanger , the branch unit , and the use-side heat exchanger are connected by a heat medium pipe to form a heat medium cycle circuit (B) through which a heat medium different from the refrigerant circulates, and wherein the outdoor unit and the heat medium relay unit that form the refrigerant cycle circuit (A) are arranged in a space separated from an air-conditioned space , are formed as components separate from the branch unit and the at least one indoor unit , are arranged in a space separated from the branch unit and the at least one indoor unit , - the outdoor unit and the heat medium relay unit are arranged in a space outside a building; or - the heat medium relay unit is arranged in an indoor space that is separated from any air-conditioned space and from any space above a ceiling of any air-conditioned space .
A method for receiving device position determination, the method characterized by : receiving , by a receiving device, beamformed position reference signals, BF-PRSs, on a plurality of communications beams from at least two transmitting devices in accordance with a BF-PRS configuration; selecting , by the receiving device, at least one communications beam of each transmitting device in accordance with a selection criterion; identifying, by the receiving device, at least one transmitting device pair from the at least two transmitting devices in accordance with the selected communications beams, the at least one transmitting device pair comprising one communications beam for each transmitting device in the at least one transmitting device pair; performing , by the receiving device, at least one observed time difference of arrival, OTDOA, measurement in accordance with the BF-PRSs on the selected communications beams; and transmitting , by the receiving device, OTDOA feedback including the at least one OTDOA measurement and including identifiers of the selected communications beams of the at least one transmitting device pair. receiving , by a receiving device, beamformed position reference signals, BF-PRSs, on a plurality of communications beams from at least two transmitting devices in accordance with a BF-PRS configuration; selecting , by the receiving device, at least one communications beam of each transmitting device in accordance with a selection criterion; identifying, by the receiving device, at least one transmitting device pair from the at least two transmitting devices in accordance with the selected communications beams, the at least one transmitting device pair comprising one communications beam for each transmitting device in the at least one transmitting device pair; performing , by the receiving device, at least one observed time difference of arrival, OTDOA, measurement in accordance with the BF-PRSs on the selected communications beams; and transmitting , by the receiving device, OTDOA feedback including the at least one OTDOA measurement and including identifiers of the selected communications beams of the at least one transmitting device pair.
A method of monitoring and controlling an operation of a meter electrically connected between a power source and a load through a meter socket, comprising: detecting at least one potential failure condition of an electrical connection between the meter and the meter socket; characterized in that it further comprises: determining , based on the detected at least one potential failure condition, a correction time indicating an amount of time before a predicted failure of the electrical connection; determining whether the meter is in an imminent failure condition based on the correction time, by comparing the correction time to a minimum correction time, and the detected at least one potential failure condition; and disconnecting power to the load with the meter when it is determined the meter is in the imminent failure condition. determining , based on the detected at least one potential failure condition, a correction time indicating an amount of time before a predicted failure of the electrical connection; determining whether the meter is in an imminent failure condition based on the correction time, by comparing the correction time to a minimum correction time, and the detected at least one potential failure condition; and disconnecting power to the load with the meter when it is determined the meter is in the imminent failure condition.
A method of preparing acetylene (C 2 H 2 ), the method at least comprising the steps of: a) providing a methane-containing stream; b) subjecting the methane-containing stream provided in step a) to non-catalytic pyrolysis, thereby obtaining carbon and hydrogen; c) reacting the carbon obtained in step b) with CaO, thereby obtaining CaC 2 and CO; d) reacting the CaC 2 obtained in step c) with H 2 O, thereby obtaining acetylene (C 2 H 2 ) and Ca(OH) 2 ; e) decomposing the Ca(OH) 2 obtained in step d), thereby obtaining CaO and H 2 O; f) using the CaO as obtained in step e) in the reaction of step c). a) providing a methane-containing stream; b) subjecting the methane-containing stream provided in step a) to non-catalytic pyrolysis, thereby obtaining carbon and hydrogen; c) reacting the carbon obtained in step b) with CaO, thereby obtaining CaC 2 and CO; d) reacting the CaC 2 obtained in step c) with H 2 O, thereby obtaining acetylene (C 2 H 2 ) and Ca(OH) 2 ; e) decomposing the Ca(OH) 2 obtained in step d), thereby obtaining CaO and H 2 O; f) using the CaO as obtained in step e) in the reaction of step c).
A hot foil stamping press comprising a pressing system for pressing a foil onto a sheet, a blow unit which is positioned at a distance to the pressing system for directing a stream of gas between the sheet and the foil , a gripper bar which is arranged between the blow unit and the pressing system for gripping and transporting the sheet, and a flow guiding element which is arranged between the blow unit and the pressing system for directing the gas from the blow unit between the sheet and the foil , characterized in that the flow guiding element is a thin plate, or in that the gripper bar has a body and that the flow guiding element is an extension of a surface of the body facing the stream of gas of the blow unit . a pressing system for pressing a foil onto a sheet, a blow unit which is positioned at a distance to the pressing system for directing a stream of gas between the sheet and the foil , a gripper bar which is arranged between the blow unit and the pressing system for gripping and transporting the sheet, and a flow guiding element which is arranged between the blow unit and the pressing system for directing the gas from the blow unit between the sheet and the foil , the flow guiding element is a thin plate, or in that the gripper bar has a body and that the flow guiding element is an extension of a surface of the body facing the stream of gas of the blow unit .
A method of dynamically controlling a wind turbine having a rotor supporting a plurality of blades and a main bearing supporting the rotor, the method comprising: detecting a load profile around the circumference of the main bearing ; generating a control signal based on the detected load profile; and dynamically adjusting the load profile of the main bearing using the control signal; wherein detecting the load profile comprises detecting strain at 15 to 20 positions evenly distributed around the bearing by means of a fibre optic sensor. detecting a load profile around the circumference of the main bearing ; generating a control signal based on the detected load profile; and dynamically adjusting the load profile of the main bearing using the control signal; wherein detecting the load profile comprises detecting strain at 15 to 20 positions evenly distributed around the bearing by means of a fibre optic sensor.
A metal housing for an aerosol provision device, the metal housing comprising: a printed circuit board mounted within the metal housing; a first contact spring providing an electrical connection between a first connection point on an inside of the metal housing and a ground connection of the printed circuit board; and a second contact spring providing an electrical connection between a second connection point on the inside surface of the metal housing and an antenna signal output for providing an antenna signal for transmission by the metal housing, wherein the metal housing comprises a radiating conductor element extending from a first surface element to a second surface element , wherein the first and second connection points are provided on the radiating conductor element and wherein a distance between the first and second surface elements is at least one quarter of a wavelength of the antenna signal transmission. a printed circuit board mounted within the metal housing; a first contact spring providing an electrical connection between a first connection point on an inside of the metal housing and a ground connection of the printed circuit board; and a second contact spring providing an electrical connection between a second connection point on the inside surface of the metal housing and an antenna signal output for providing an antenna signal for transmission by the metal housing, wherein the metal housing comprises a radiating conductor element extending from a first surface element to a second surface element , wherein the first and second connection points are provided on the radiating conductor element and wherein a distance between the first and second surface elements is at least one quarter of a wavelength of the antenna signal transmission.
A method comprising: determining a digital map representative of a physical environment and of a first robotic device and a second robotic device within the physical environment, wherein the digital map includes an indication of a predicted future location of the first robotic device and a predicted time at which the first robotic device will arrive at the predicted future location to perform a coordinated task phase of a task; causing the first robotic device to perform the task comprising a plurality of task phases, the plurality including the coordinated task phase to be performed with the second robotic device, the coordinated task phase comprising a transfer of an object between the first and second robotic devices; during a performance of at least one of the plurality of task phases by the first robotic device, receiving, from the first robotic device, task progress data indicative of which of the plurality of task phases have been performed by the first robotic device; based on the received task progress data, updating the digital map to include an indication of a change in one or more of the predicted future location and the predicted time for performing the coordinated task phase; and based on the updated digital map indicating the change, causing the second robotic device to perform the coordinated task phase with the first robotic device at one or more of the changed predicted future location and the changed predicted time. determining a digital map representative of a physical environment and of a first robotic device and a second robotic device within the physical environment, wherein the digital map includes an indication of a predicted future location of the first robotic device and a predicted time at which the first robotic device will arrive at the predicted future location to perform a coordinated task phase of a task; causing the first robotic device to perform the task comprising a plurality of task phases, the plurality including the coordinated task phase to be performed with the second robotic device, the coordinated task phase comprising a transfer of an object between the first and second robotic devices; during a performance of at least one of the plurality of task phases by the first robotic device, receiving, from the first robotic device, task progress data indicative of which of the plurality of task phases have been performed by the first robotic device; based on the received task progress data, updating the digital map to include an indication of a change in one or more of the predicted future location and the predicted time for performing the coordinated task phase; and based on the updated digital map indicating the change, causing the second robotic device to perform the coordinated task phase with the first robotic device at one or more of the changed predicted future location and the changed predicted time.
Method for the surface hardening of a metal workpiece , in which first a region of the workpiece is heated by at least one inductor , in that the at least one inductor is moved at a prescribed speed (v) in a direction of movement (L) along the surface of the workpiece , the heating of the region of the workpiece being followed by a cooling of the region by at least one cooling element , in that the at least one cooling element is moved at a prescribed speed (v) in the direction of movement (L), characterized in that the heating of the region by means of the at least one inductor is performed with varying magnetic field strength along the surface to be hardened of the workpiece perpendicularly to the direction of movement (L), a variation of the magnetic field strength along the surface of the workpiece perpendicularly to the direction of movement (L) taking place depending on the form and/or the subsequent hard machining of the workpiece , and at least one preheating inductor and at least one hardening inductor being used for heating the region, the preheating inductor running ahead of the hardening inductor in the direction of movement (L); or a single inductor with at least one preheating part and at least one hardening part being used for heating the region, the preheating part running ahead of the hardening part in the direction of movement (L).
A coating composition comprising: (a) a melamine resin comprising imino and methylol functional groups that together comprise 30 mole% or greater of the total functionality of the melamine resin; and (b) at least one polymer reactive with (a) that is obtained from components comprising polytetrahydrofuran and a carboxylic acid or anhydride thereof, wherein the polytetrahydrofuran comprises greater than 20 weight % of the components that form the polymer (b) and the carboxylic acid or anhydride thereof comprises greater than 13 weight % of the components that form the polymer (b), and wherein the polymer (b) has an acid value ranging from 40 to 60 based on the total resin solids of the polymer (b) if it does not comprise core-shell particles; or wherein the polymer (b) reactive with the melamine resin (a) comprises polymeric core-shell particles, wherein at least a portion of a polymeric shell of the core-shell particles is covalently bonded to at least a portion of a polymeric core of the core-shell particles, and wherein the polymeric shell of the core-shell particles is obtained from components comprising greater than 20 weight % of the components that form the polymeric shell of polytetrahydrofuran and greater than 13 weight % of the components that form the polymeric shell of carboxylic acid or anhydride thereof and in which the polymeric shell has an acid value ranging 40 to 60 based on the total resin solids of the polymer that forms the polymeric shell. (a) a melamine resin comprising imino and methylol functional groups that together comprise 30 mole% or greater of the total functionality of the melamine resin; and (b) at least one polymer reactive with (a) that is obtained from components comprising polytetrahydrofuran and a carboxylic acid or anhydride thereof, wherein the polymer (b) has an acid value ranging from 40 to 60 based on the total resin solids of the polymer (b) if it does not comprise core-shell particles; or wherein the polymer (b) reactive with the melamine resin (a) comprises polymeric core-shell particles, wherein at least a portion of a polymeric shell of the core-shell particles is covalently bonded to at least a portion of a polymeric core of the core-shell particles, and wherein the polymeric shell of the core-shell particles is obtained from components comprising greater than 20 weight % of the components that form the polymeric shell of polytetrahydrofuran and greater than 13 weight % of the components that form the polymeric shell of carboxylic acid or anhydride thereof and in which the polymeric shell has an acid value ranging 40 to 60 based on the total resin solids of the polymer that forms the polymeric shell.
A congestion control method, applied to a dedicated core network, DCN, scenario having a DCN node of multiple DCN types, and comprising: determining a priority of each dedicated core network DCN type, based on DCN information received from the DCN node; receiving a load status of the DCN node from the DCN node; receiving an access request message sent by user equipment, UE; obtaining , based on the access request message, a type of a DCN that the UE requests to access, and determining of a status of the type of the DCN that the UE requests to access; and determining , based on the status of the type of the DCN that the UE requests to access, whether to allow access by the UE; wherein determining by the RAN a status of the DCN type comprises determining the status of each DCN type based on the priority of said DCN type and the network load status; wherein the network load status is a congestion grade, and the determining the status of each DCN type based on the priority of said DCN type and the network load status comprises: determining the status of each DCN type based on the priority of said DCN type and the congestion grade; wherein the method is performed by a radio access network RAN node. determining a priority of each dedicated core network DCN type, based on DCN information received from the DCN node; receiving a load status of the DCN node from the DCN node; receiving an access request message sent by user equipment, UE; obtaining , based on the access request message, a type of a DCN that the UE requests to access, and determining of a status of the type of the DCN that the UE requests to access; and determining , based on the status of the type of the DCN that the UE requests to access, whether to allow access by the UE; wherein determining by the RAN a status of the DCN type comprises determining the status of each DCN type based on the priority of said DCN type and the network load status; wherein the network load status is a congestion grade, and the determining the status of each DCN type based on the priority of said DCN type and the network load status comprises: determining the status of each DCN type based on the priority of said DCN type and the congestion grade; wherein the method is performed by a radio access network RAN node. determining the status of each DCN type based on the priority of said DCN type and the congestion grade; wherein the method is performed by a radio access network RAN node.