mhurhangee/patent-ind-claim-en huggingface dataset:
A steer-by-wire steering system where a steering input device that receives a steering input by being steered by a driver is mechanically coupleable to or isolated from a steering operation device that causes a steered wheel to be steered in accordance with the steering input to the steering input device by the driver, the steer-by-wire steering system comprising: a steering-side motor that supplies the steering input device with a steering reaction force that opposes the steering input to the steering input device by the driver; a steered-side motor that supplies the steering operation device with a steering force that causes the steered wheel to be steered; and a power supply control circuit that controls a power supply to the steering-side motor such that the steering-side motor generates the steering reaction force in accordance with the steering input to the steering input device by the driver and that controls a power supply to the steered-side motor such that the steered-side motor generates the steering force that causes a steered angle of the steered wheel to follow a steering angle that changes on a basis of the steering input to the steering input device by the driver, wherein when a duty ratio of a duty signal that is generated to control the power supply to the steered-side motor reaches a setting value that is defined to indicate that the steered angle becomes unable to follow the steering angle, the power supply control circuit controls the power supply to the steering-side motor such that the steering-side motor increases the steering reaction force. a steering-side motor that supplies the steering input device with a steering reaction force that opposes the steering input to the steering input device by the driver; a steered-side motor that supplies the steering operation device with a steering force that causes the steered wheel to be steered; and a power supply control circuit that controls a power supply to the steering-side motor such that the steering-side motor generates the steering reaction force in accordance with the steering input to the steering input device by the driver and that controls a power supply to the steered-side motor such that the steered-side motor generates the steering force that causes a steered angle of the steered wheel to follow a steering angle that changes on a basis of the steering input to the steering input device by the driver, wherein when a duty ratio of a duty signal that is generated to control the power supply to the steered-side motor reaches a setting value that is defined to indicate that the steered angle becomes unable to follow the steering angle, the power supply control circuit controls the power supply to the steering-side motor such that the steering-side motor increases the steering reaction force.
Pneumatic vehicle tyre for passenger motor vehicles, in particular for use in wintry driving conditions, with a tread strip profile with at least one row of blocks which runs around in the circumferential direction, the profile blocks of which are separated by way of transverse grooves, and the profile blocks of which are provided in plan view with at least two wave-like or zigzag-shaped sipes which are aligned with one another and substantially parallel to one another and which configure wave crests with a deflection towards the top and wave troughs with a deflection towards the bottom about an imaginary zero line, and the sipes having, furthermore, two different widths (b 1 , b 2 ) in plan view, a first width (b 1 ) of from 0.3 to 0.6 mm which is configured over a majority of the longitudinal extent of the sipe , and sections of a second, greater width (b 2 ) which are configured locally as snow pockets around the points of the greatest deflection, characterized in that the snow pockets are arranged distributed over the profile block in such a way that one sipe has snow pockets exclusively in the wave crests , and the sipe or sipes which adjoins/adjoin the said sipe directly has/have the snow pockets exclusively in the wave troughs , or vice versa.
An electrode assembly , comprising a positive pole piece and a negative pole piece which are stacked, characterized in that a positive active material layer of the positive pole piece and a negative active material layer of the negative pole piece are arranged oppositely, and an end of the negative active material layer extends beyond the positive active material layer ; the negative active material layer comprises a negative body portion and a negative edge portion connected thereto, one end, away from the negative body portion , of the negative edge portion extends beyond the positive active material layer , in a stacking direction of the positive pole piece and the negative pole piece , at least part of the negative edge portion overlaps the positive active material layer , and the negative active material layer is configured in such a way that a capacity per unit area of the negative edge portion is greater than that of the negative body portion ; wherein a weight ratio of an active material in the negative edge portion to the negative edge portion is greater than that of an active material in the negative body portion to the negative body portion , such that the capacity per unit area of the negative edge portion is greater than that of the negative body portion ; and/or the positive active material layer comprises a positive body portion and a positive edge portion connected thereto, and the positive edge portion is configured in such a way that a capacity per unit area of the positive edge portion is smaller than that of the positive body portion ; wherein a weight ratio of an active material in the positive edge portion to the positive edge portion is smaller than that of an active material in the positive body portion to the positive body portion , such that the capacity per unit area of the positive edge portion is smaller than that of the positive body portion .
A device comprising: a substrate ; a first via that extends partially through the substrate and forms within the substrate at least a part of an inductor; a second via that extends partially through the substrate and forms within the substrate at least a part of the inductor, wherein the first via and the second via are joined within the substrate ; and a capacitor , wherein a dielectric of the capacitor is located above the first via , between the first via and a plate of the capacitor and wherein the plate of the capacitor is external to the substrate and within the device. a substrate ; a first via that extends partially through the substrate and forms within the substrate at least a part of an inductor; a second via that extends partially through the substrate and forms within the substrate at least a part of the inductor, wherein the first via and the second via are joined within the substrate ; and a capacitor , wherein a dielectric of the capacitor is located above the first via , between the first via and a plate of the capacitor and wherein the plate of the capacitor is external to the substrate and within the device.
A wireless communication method, comprising: transmitting, by a first communication node, a radio resource control, RRC, signaling message to a second communication node, the RRC signaling message including a set of configurations, wherein a reference signal corresponding to a configuration of the set of configurations and a demodulation reference signal, DMRS, port satisfy at least a quasi co-location, QCL, assumption, wherein the set comprises M configurations, M being an integer greater than or equal to 1; activating, by the first communication node, a subset of the set of configurations by transmitting a media access control, MAC, control element, CE, signaling message to the second communication node, wherein two configurations in the MAC CE signaling message that represent individual QCL relationships correspond to a same identifier, wherein the activated subset of the set of configurations is applied by the second communication node starting from a time-domain position that is Y slots after the MAC CE signaling message is transmitted, wherein Y is an integer greater than 1; and transmitting, by the first communication node, a downlink control information, DCI, signaling message to the second communication node specifying the identifier corresponding to the two configurations. transmitting, by a first communication node, a radio resource control, RRC, signaling message to a second communication node, the RRC signaling message including a set of configurations, wherein a reference signal corresponding to a configuration of the set of configurations and a demodulation reference signal, DMRS, port satisfy at least a quasi co-location, QCL, assumption, wherein the set comprises M configurations, M being an integer greater than or equal to 1; activating, by the first communication node, a subset of the set of configurations by transmitting a media access control, MAC, control element, CE, signaling message to the second communication node, wherein two configurations in the MAC CE signaling message that represent individual QCL relationships correspond to a same identifier, wherein the activated subset of the set of configurations is applied by the second communication node starting from a time-domain position that is Y slots after the MAC CE signaling message is transmitted, wherein Y is an integer greater than 1; and transmitting, by the first communication node, a downlink control information, DCI, signaling message to the second communication node specifying the identifier corresponding to the two configurations.
Fume extracting device which has at least one fume extracting opening and a plurality of fume restriction modules, wherein the fume restriction modules are designed to restrict fumes to a first spatial region, wherein the fumes can be extracted from the first spatial region via the at least one fume extracting opening , and wherein the at least one fume extracting opening at least partially surrounds at least one second fume restriction module, characterized in that at least one first fume restriction module is designed as at least one air supply opening , wherein, by air being supplied via said at least one air supply opening , it is possible to provide an air curtain which makes it possible for the fumes to be restricted to the first spatial region.
Conveying apparatus comprising a stator and at least one transportation body , wherein the conveying apparatus is designed to convey the at least one transportation body relative to the stator in a controlled manner, wherein: - the stator has a plurality of actuating magnets which are arranged in a movable manner and which are embodied as permanent magnets and each of which is connected to the stator by means of a respective actuating element which is designed to change a position and/or an orientation of the actuating magnet associated with it relative to the stator in a controlled manner; - the at least one transportation body has at least two stationary magnets which are embodied as permanent magnets and which are connected to the transportation body in such a way that the at least two stationary magnets are immovable relative to the transportation body ; - the stator and the at least one transportation body are magnetically coupled by means of the at least two stationary magnets and the plurality of actuating magnets , wherein the transportation body can be held in a floating manner solely by permanent-magnet forces of the actuating magnets and of the stationary magnets, wherein the position of the transportation body relative to the stator can be adjusted in six degrees of freedom; and - the actuating elements can be adjusted by means of electric current, wherein a latching force and/or a friction force of each of the actuating elements in the deenergized state is selected to be so low that the actuating element is automatically moved to a stable position under the influence of the magnetic coupling between the stationary magnets and the actuating magnets in the deenergized state. - the stator has a plurality of actuating magnets which are arranged in a movable manner and which are embodied as permanent magnets and each of which is connected to the stator by means of a respective actuating element which is designed to change a position and/or an orientation of the actuating magnet associated with it relative to the stator in a controlled manner; - the at least one transportation body has at least two stationary magnets which are embodied as permanent magnets and which are connected to the transportation body in such a way that the at least two stationary magnets are immovable relative to the transportation body ; - the stator and the at least one transportation body are magnetically coupled by means of the at least two stationary magnets and the plurality of actuating magnets , - the actuating elements can be adjusted by means of electric current, wherein a latching force and/or a friction force of each of the actuating elements in the deenergized state is selected to be so low that the actuating element is automatically moved to a stable position under the influence of the magnetic coupling between the stationary magnets and the actuating magnets in the deenergized state.
A method comprising one or more processors executing the steps of: implementing a first file system (206;206A) that is configured to send data requests towards a volatile page cache ; implementing a second file system that is configured to send data requests towards a persistent page cache determining, by the first file system, whether a file that includes the data is marked for caching in the persistent page cache or volatile page cache; and in response to determining that the file is marked for caching in the persistent page cache, sending a request for the data to the second file system; identifying a request for data from an application ; determining whether the persistent page cache stores a copy of the data, wherein the persistent page cache is directly addressable by a processor and is operable to cache data of a storage device that is not directly addressable by the processor ; and accessing the data from the persistent page cache . implementing a first file system (206;206A) that is configured to send data requests towards a volatile page cache ; implementing a second file system that is configured to send data requests towards a persistent page cache determining, by the first file system, whether a file that includes the data is marked for caching in the persistent page cache or volatile page cache; and in response to determining that the file is marked for caching in the persistent page cache, sending a request for the data to the second file system; identifying a request for data from an application ; determining whether the persistent page cache stores a copy of the data, wherein the persistent page cache is directly addressable by a processor and is operable to cache data of a storage device that is not directly addressable by the processor ; and accessing the data from the persistent page cache .
A computer-implemented method comprising: receiving (S201, S901) an access request in relation to data , wherein there exists ECC data relating to the data, wherein the ECC data is generated by running an ECC encoding algorithm on the data, wherein the ECC encoding algorithm is a Hamming-based algorithm such that the ECC data comprises Hamming parity bits, and wherein the ECC data is configured to enable correction of multiple-bit errors spanning up to a predetermined number of consecutive bits of the data; performing (S202, S902) a first integrity verification procedure to verify the integrity of at least the data; responsive to a finding of non-integrity by the first integrity verification procedure, performing (S203, S904) an error analysis procedure based on the data and the ECC data so as to generate corrected data; and responsive to the generation of the corrected data by the error analysis procedure, performing (S204, S907) a second integrity verification procedure to verify the integrity of at least the corrected data the method being characterised in that : the first and/or second integrity verification procedures are not ECC-based integrity verification procedures, and the first and/or second integrity verificatior procedures use one or more of a hash value, a checksum, a message authentication code, and a digital signature. receiving (S201, S901) an access request in relation to data , wherein there exists ECC data relating to the data, wherein the ECC data is generated by running an ECC encoding algorithm on the data, wherein the ECC encoding algorithm is a Hamming-based algorithm such that the ECC data comprises Hamming parity bits, and wherein the ECC data is configured to enable correction of multiple-bit errors spanning up to a predetermined number of consecutive bits of the data; performing (S202, S902) a first integrity verification procedure to verify the integrity of at least the data; responsive to a finding of non-integrity by the first integrity verification procedure, performing (S203, S904) an error analysis procedure based on the data and the ECC data so as to generate corrected data; and responsive to the generation of the corrected data by the error analysis procedure, performing (S204, S907) a second integrity verification procedure to verify the integrity of at least the corrected data the method being characterised in that : the first and/or second integrity verification procedures are not ECC-based integrity verification procedures, and the first and/or second integrity verificatior procedures use one or more of a hash value, a checksum, a message authentication code, and a digital signature.
A food processing system comprising: a heating unit comprising a heating mechanism for indirectly heating food and further comprising an air blowing mechanism; a cooling unit comprising a cooling mechanism for cooling the food that has been heated by the heating unit and further comprising an air blowing mechanism; and a transporting unit for transporting the food through the heating unit and the cooling unit, wherein the transporting unit comprises a through hole; wherein the heating mechanism is located below the transporting unit and a heat mediating substance is ejected downwards from the heating mechanism, and wherein the air blowing mechanism of the heating unit blows air in a direction that is not towards the food. a heating unit comprising a heating mechanism for indirectly heating food and further comprising an air blowing mechanism; a cooling unit comprising a cooling mechanism for cooling the food that has been heated by the heating unit and further comprising an air blowing mechanism; and a transporting unit for transporting the food through the heating unit and the cooling unit, wherein the transporting unit comprises a through hole; wherein the heating mechanism is located below the transporting unit and a heat mediating substance is ejected downwards from the heating mechanism, and wherein the air blowing mechanism of the heating unit blows air in a direction that is not towards the food.
A method for controlling video recording, wherein the method comprises: starting , by an apparatus for controlling video recording, video recording with a camera in response to a multi-touch operation on a touch-control area; wherein the apparatus for controlling video recording is configured to control a head-wearable device, and the head-wearable device is provided with the camera and the touch-control area; wherein one touch point is formed where each finger touches the touch-control area, a user can complete the multi-touch operation with no less than two fingers; adjusting , by the apparatus, in a process of the video recording, a zoom ratio for the video recording according to a moving track of a touch point corresponding to the multi-touch operation; and terminating , by the apparatus, the video recording when it is determined that a recording termination condition is met, wherein the recording termination condition comprises that the multi-touch operation disappears and a duration of the disappearing reaches a first preset duration; characterised in that therein the method further comprises: performing, by the apparatus, a photographing operation and maintaining the video recording, in the process of the video recording, when a part of the touch points disappears and then recovers within a fourth preset duration. starting , by an apparatus for controlling video recording, video recording with a camera in response to a multi-touch operation on a touch-control area; wherein the apparatus for controlling video recording is configured to control a head-wearable device, and the head-wearable device is provided with the camera and the touch-control area; wherein one touch point is formed where each finger touches the touch-control area, a user can complete the multi-touch operation with no less than two fingers; adjusting , by the apparatus, in a process of the video recording, a zoom ratio for the video recording according to a moving track of a touch point corresponding to the multi-touch operation; and terminating , by the apparatus, the video recording when it is determined that a recording termination condition is met, wherein the recording termination condition comprises that the multi-touch operation disappears and a duration of the disappearing reaches a first preset duration; characterised in that therein the method further comprises: performing, by the apparatus, a photographing operation and maintaining the video recording, in the process of the video recording, when a part of the touch points disappears and then recovers within a fourth preset duration.
A method for maintaining an Active Coordination Set, ACS, by a user equipment , UE, for joint wireless communication between the user equipment and multiple base stations included in the ACS, the method comprising: receiving , by the UE , a message including a resource configuration for an ACS Disengaged-mode Reference Signal, ADRS, and an ACS Disengaged-mode Update Signal, ADUS; transitioning to a disengaged mode , the disengaged mode being a radio resource control, RRC, idle or inactive mode ; receiving the ADRS, using the received ADRS resource configuration and while in the disengaged mode , the ADRS transmitted jointly by the multiple base stations in the ACS; determining that an updated ACS is required based on the received ADRS; based on determining that the updated ACS is required and while in the disengaged mode , signaling a request for the updated ACS; and receiving the updated ACS. receiving , by the UE , a message including a resource configuration for an ACS Disengaged-mode Reference Signal, ADRS, and an ACS Disengaged-mode Update Signal, ADUS; transitioning to a disengaged mode , the disengaged mode being a radio resource control, RRC, idle or inactive mode ; receiving the ADRS, using the received ADRS resource configuration and while in the disengaged mode , the ADRS transmitted jointly by the multiple base stations in the ACS; determining that an updated ACS is required based on the received ADRS; based on determining that the updated ACS is required and while in the disengaged mode , signaling a request for the updated ACS; and receiving the updated ACS.