mhurhangee/patent-ind-claim-en huggingface dataset:
A method of serverless query processing, in a serverless query processing system comprising at least one processor and at least one memory, the at least one memory comprising instructions executed by the at least one processor to process queries, the method comprising: receiving a query; determining whether the query is a recurring query or a non-recurring query; predicting , in response to determining that the query is the recurring query, a peak resource requirement during an execution of the query, the peak resource requirement being predicted based on a query specific predictor model learned from data from previous executions of the query; computing , in response to determining that the query is the non-recurring query, a tight resource requirement corresponding to an amount of resources that satisfy a performance requirement over the execution of the query, starting from an original resource-cost curve; allocating resources to the query based on an applicable one of the peak resource requirement or the tight resource requirement; starting the execution of the query using the resources; and dynamically updating the allocation of the resource for a remainder of the execution of the query based on a query execution graph of the query, including re-computing the applicable one of the peak resource requirement or the tight resource requirement based on the query execution graph; and releasing any excess resources. receiving a query; determining whether the query is a recurring query or a non-recurring query; predicting , in response to determining that the query is the recurring query, a peak resource requirement during an execution of the query, the peak resource requirement being predicted based on a query specific predictor model learned from data from previous executions of the query; computing , in response to determining that the query is the non-recurring query, a tight resource requirement corresponding to an amount of resources that satisfy a performance requirement over the execution of the query, starting from an original resource-cost curve; allocating resources to the query based on an applicable one of the peak resource requirement or the tight resource requirement; starting the execution of the query using the resources; and dynamically updating the allocation of the resource for a remainder of the execution of the query based on a query execution graph of the query, including re-computing the applicable one of the peak resource requirement or the tight resource requirement based on the query execution graph; and releasing any excess resources.
An RFID reader for tracking a plurality of RFID tags, the RFID reader comprising: an array of multilayer antennas, each multilayer antenna comprising a first coil and a second coil , the first coil being superimposed above the second coil; and an electronics unit configured to transmit a signal to and receive and process information from each multilayer antenna , characterised in that the RFID reader includes Radar Absorbent Material (RAM). an array of multilayer antennas, each multilayer antenna comprising a first coil and a second coil , the first coil being superimposed above the second coil; and an electronics unit configured to transmit a signal to and receive and process information from each multilayer antenna , characterised in that the RFID reader includes Radar Absorbent Material (RAM).
A toy top, comprising: a shaft portion including a spinning shaft ; characterized in that the top comprises: an additional part attached to the shaft portion movably in an axis direction of the spinning shaft; and an engaging part which engages the additional part with the shaft portion at different positions in the axis direction of the spinning shaft, wherein an attachment position of the additional part is changeable by changing engagement of the additional part by the engaging part, and wherein a grounding state or a height of the shaft portion is changeable according to change of the attachment position of the additional part . an additional part attached to the shaft portion movably in an axis direction of the spinning shaft; and an engaging part which engages the additional part with the shaft portion at different positions in the axis direction of the spinning shaft, wherein an attachment position of the additional part is changeable by changing engagement of the additional part by the engaging part, and wherein a grounding state or a height of the shaft portion is changeable according to change of the attachment position of the additional part .
A network element registration method, comprising: receiving (S102), by a Network Function Repository Function, NRF , a registration request of a NRF extra-domain service provider network element , wherein the registration request comprises service identification information of the NRF extra-domain service provider network element ; and allocating (S104), in response to the registration request, a first network element instance ID for the NRF extra-domain service provider network element , characterized in that , the first network element instance ID is different from a second network element instance ID allocated by the NRF for a NRF intra-domain service provider network element , the NRF extra-domain service provider network element does not support a registration interface of the NRF , the NRF intra-domain service provider network element supports the registration interface and heartbeat/keep-alive interface of the NRF , the NRF is configured to set the NRF extra-domain service provider network element , identified by the first network element instance ID, to be in a permanent online state, and the NRF is configured to automatically register and subject to heartbeat/keep-alive detection the NRF intra-domain service provider network element , identified by the second network element instance ID. receiving (S102), by a Network Function Repository Function, NRF , a registration request of a NRF extra-domain service provider network element , wherein the registration request comprises service identification information of the NRF extra-domain service provider network element ; and allocating (S104), in response to the registration request, a first network element instance ID for the NRF extra-domain service provider network element , characterized in that , the first network element instance ID is different from a second network element instance ID allocated by the NRF for a NRF intra-domain service provider network element , the NRF extra-domain service provider network element does not support a registration interface of the NRF , the NRF intra-domain service provider network element supports the registration interface and heartbeat/keep-alive interface of the NRF , the NRF is configured to set the NRF extra-domain service provider network element , identified by the first network element instance ID, to be in a permanent online state, and the NRF is configured to automatically register and subject to heartbeat/keep-alive detection the NRF intra-domain service provider network element , identified by the second network element instance ID.
An airfield runway lamp controller (102, 302-1, 302-2, 302-N) for controlling an airfield runway lamp, characterized in that said lamp controller comprises: a first current sense transformer configured to detect a failure of a light source of the airfield runway lamp (106, 306-1, 306-2, 306-N); a second current sense transformer configured to direct current to an alternating current (AC) switch upon the first current sense transformer detecting the failure of the light source; the alternating current (AC) switch configured to shunt the light source of the airfield runway lamp (106, 306-1, 306-2, 306-N) upon the first current sense transformer detecting a failure of the light source; and an auxiliary power source configured to provide a gate control voltage to power the AC switch upon the first current sense transformer detecting the failure of the light source. a first current sense transformer configured to detect a failure of a light source of the airfield runway lamp (106, 306-1, 306-2, 306-N); a second current sense transformer configured to direct current to an alternating current (AC) switch upon the first current sense transformer detecting the failure of the light source; the alternating current (AC) switch configured to shunt the light source of the airfield runway lamp (106, 306-1, 306-2, 306-N) upon the first current sense transformer detecting a failure of the light source; and an auxiliary power source configured to provide a gate control voltage to power the AC switch upon the first current sense transformer detecting the failure of the light source.
A method for performing a random access procedure by a user equipment in a wireless communication system, the method comprising: receiving (S1410) a physical downlink control channel, PDCCH, order indicating an initiation of the random access procedure from a base station; transmitting (S1420) a random access preamble to the base station; and receiving (S1430) a random access response message from the base station, wherein receiving the random access response message comprises: receiving downlink data along with the random access response message when the PDCCH order indicates a downlink data transmission in a message2, Msg2. receiving (S1410) a physical downlink control channel, PDCCH, order indicating an initiation of the random access procedure from a base station; transmitting (S1420) a random access preamble to the base station; and receiving (S1430) a random access response message from the base station, wherein receiving the random access response message comprises: receiving downlink data along with the random access response message when the PDCCH order indicates a downlink data transmission in a message2, Msg2.
A device for biometric identification of an object comprising: an optical image sensor element at least sensitive to an infrared spectrum to take at least one picture of the object under ambient light conditions (ALC) with additional infrared light conditions (ILC), an infrared light source , wherein the infrared light source is a VCSEL, to provide additional infrared light (IR) for the infrared light conditions (ILC), and a processing unit to provide an image or image code for the biometric identification obtained from the picture , where the VCSEL emits a narrow infrared light spectrum with a peak wavelength of 940 nm and with a full width of half maximum of less than 5nm, and where an infrared bandpass filter is arranged in the light path (LP) between the object and a sensor array of the optical image sensor element having a transmission window covering at least the peak wavelength of the VCSEL , wherein the transmission window of the bandpass filter has a width (TW) of 10nm
A nozzle, comprising: a shaft having shaft inlet and a shaft outlet spaced from said shaft inlet ; and a nozzle boot surrounding at least a portion of said shaft , said nozzle boot having a nozzle boot inlet and a nozzle boot outlet spaced from said nozzle boot inlet and a volume between said nozzle boot inlet and said nozzle boot outlet , characterized by said nozzle boot being a bellows that is expandable axially and radially relative to said shaft , from a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows , to a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet , upon the introduction of water under pressure into said volume from said nozzle boot inlet , and said bellows being further collapsible axially and radially relative to said shaft , from a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet , to a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows , upon withdrawal of water under pressure from said volume. a shaft having shaft inlet and a shaft outlet spaced from said shaft inlet ; and a nozzle boot surrounding at least a portion of said shaft , said nozzle boot having a nozzle boot inlet and a nozzle boot outlet spaced from said nozzle boot inlet and a volume between said nozzle boot inlet and said nozzle boot outlet , characterized by said nozzle boot being a bellows that is expandable axially and radially relative to said shaft , from a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows , to a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet , upon the introduction of water under pressure into said volume from said nozzle boot inlet , and said bellows being further collapsible axially and radially relative to said shaft , from a position where the free end of the nozzle boot bellows extends axially beyond the shaft outlet , to a position where the shaft outlet extends axially beyond the free end of the nozzle boot bellows , upon withdrawal of water under pressure from said volume.
A method for operating a first user equipment in a wireless communication network, the method comprising: - assigning the first user equipment to a second user equipment , wherein the first user equipment is located within a wireless device-to-device communication range of the second user equipment , wherein the assignment is stored in the wireless communication network, and - upon assigning the first user equipment to the second user equipment , setting the first user equipment into a reduced communication operation mode, wherein in the reduced communication operation mode the first user equipment stops listening to a predefined set of messages sent from the wireless communication network and starts listening to a predefined message sent from the second user equipment . - assigning the first user equipment to a second user equipment , wherein the first user equipment is located within a wireless device-to-device communication range of the second user equipment , wherein the assignment is stored in the wireless communication network, and - upon assigning the first user equipment to the second user equipment , setting the first user equipment into a reduced communication operation mode, wherein in the reduced communication operation mode the first user equipment stops listening to a predefined set of messages sent from the wireless communication network and starts listening to a predefined message sent from the second user equipment .
A method for fabricating a semiconductor device, comprising: forming a substrate having a magnetic tunneling junction, MTJ, region and a logic region ; forming a first inter-metal dielectric, IMD, layer in the MTJ region and the logic region ; forming a MTJ on the first IMD layer in the MTJ region ; forming a top electrode on the MTJ ; forming a cap layer on the first IMD layer in the MTJ region and the logic region and covering directly the MTJ ; forming a second IMD layer on the cap layer and around the MTJ and in the logic region ); removing the second IMD layer and the cap layer directly on the top electrode to form a recess ; forming a first hard mask on the second IMD layer and into the recess ; removing the first hard mask , the second IMD layer , the cap layer and the first IMD layer in the logic region to form a contact hole ; and forming a metal layer in the recess and the contact hole to form a connecting structure on the top electrode and a metal interconnection in the logic region . forming a substrate having a magnetic tunneling junction, MTJ, region and a logic region ; forming a first inter-metal dielectric, IMD, layer in the MTJ region and the logic region ; forming a MTJ on the first IMD layer in the MTJ region ; forming a top electrode on the MTJ ; forming a cap layer on the first IMD layer in the MTJ region and the logic region and covering directly the MTJ ; forming a second IMD layer on the cap layer and around the MTJ and in the logic region ); removing the second IMD layer and the cap layer directly on the top electrode to form a recess ; forming a first hard mask on the second IMD layer and into the recess ; removing the first hard mask , the second IMD layer , the cap layer and the first IMD layer in the logic region to form a contact hole ; and forming a metal layer in the recess and the contact hole to form a connecting structure on the top electrode and a metal interconnection in the logic region .
A frictional power transmission belt comprising a compression rubber layer having a frictional power transmission surface of which at least a portion is contactable with a pulley and formed of a vulcanization product of a rubber composition comprising a rubber component and short fibers , wherein a lubricant comprising wax is present on at least a portion of the frictional power transmission surface: characterized in that the frictional power transmission belt is a raw-edge cogged V-belt, wherein the proportion of the lubricant is 3 to 8 parts by mass based on 100 parts by mass of the rubber component. characterized in that the frictional power transmission belt is a raw-edge cogged V-belt, wherein the proportion of the lubricant is 3 to 8 parts by mass based on 100 parts by mass of the rubber component.
A heated aerosol-generating article comprising an aerosol-generating substrate , the aerosol-generating substrate comprising homogenised plant material formed of particulate plant material, the particulate plant material comprising between 10 percent and 40 percent by weight clove particles and between 60 percent and 90 percent by weight tobacco particles, based on dry weight of the particulate plant material, wherein the homogenised plant material further comprises an aerosol former and a binder.
An apparatus to prevent media transport jams, comprising an actuator to advance media that is loaded within a media path width of a media transport apparatus ; at least one of a first sensor and a second sensor to detect an edge of the media during the advancement of the media, wherein the at least one of the first sensor and the second sensor is positioned outside of a media action area , wherein the media action area is positioned within the media path width; and a controller to calculate a skew rate to determine the advancement of the media wherein to calculate the skew rate, the controller is to: evaluate a progression distance of the advancement of a portion of the media prior to the detection of the edge of the media; assess a margin distance between the at least one of the first sensor and the second sensor and the end of the media path width; and estimate whether the margin distance permits the advancement of a remaining portion of the media without causing a media transport jam. an actuator to advance media that is loaded within a media path width of a media transport apparatus ; at least one of a first sensor and a second sensor to detect an edge of the media during the advancement of the media, wherein the at least one of the first sensor and the second sensor is positioned outside of a media action area , wherein the media action area is positioned within the media path width; and a controller to calculate a skew rate to determine the advancement of the media wherein to calculate the skew rate, the controller is to: evaluate a progression distance of the advancement of a portion of the media prior to the detection of the edge of the media; assess a margin distance between the at least one of the first sensor and the second sensor and the end of the media path width; and estimate whether the margin distance permits the advancement of a remaining portion of the media without causing a media transport jam. evaluate a progression distance of the advancement of a portion of the media prior to the detection of the edge of the media; assess a margin distance between the at least one of the first sensor and the second sensor and the end of the media path width; and estimate whether the margin distance permits the advancement of a remaining portion of the media without causing a media transport jam.
A cross traffic alert system for a host vehicle engaged in a forward or reverse gear position, comprising: a sensing system mountable to said host vehicle and configured to detect relative positions of a plurality of target objects present in a zone of interest proximate to the host vehicle in a direction corresponding to the engaged gear position and over multiple time points; and a processor configured to: receive target object relative positional data detected by the sensing system, and generate an output signal indicating when one or more of the target objects has entered a threshold alert area; characterized in that the processor is configured to: dynamically adjust the threshold alert area based on the received target object relative positional data wherein the threshold alert area is adjusted to have a first longitudinal alert threshold when the received target object relative positional data compares to a first classification of driving environment, and the threshold alert area is adjusted to have a second longitudinal alert threshold when the received target object relative positional data compares to a second classification of driving environment. a sensing system mountable to said host vehicle and configured to detect relative positions of a plurality of target objects present in a zone of interest proximate to the host vehicle in a direction corresponding to the engaged gear position and over multiple time points; and a processor configured to: receive target object relative positional data detected by the sensing system, and generate an output signal indicating when one or more of the target objects has entered a threshold alert area; characterized in that the processor is configured to: dynamically adjust the threshold alert area based on the received target object relative positional data wherein the threshold alert area is adjusted to have a first longitudinal alert threshold when the received target object relative positional data compares to a first classification of driving environment, and the threshold alert area is adjusted to have a second longitudinal alert threshold when the received target object relative positional data compares to a second classification of driving environment. receive target object relative positional data detected by the sensing system, and generate an output signal indicating when one or more of the target objects has entered a threshold alert area; characterized in that the processor is configured to: dynamically adjust the threshold alert area based on the received target object relative positional data wherein the threshold alert area is adjusted to have a first longitudinal alert threshold when the received target object relative positional data compares to a first classification of driving environment, and the threshold alert area is adjusted to have a second longitudinal alert threshold when the received target object relative positional data compares to a second classification of driving environment.
Pneumatic pinch valve for a distributor device for liquid manure, having a cylindrical housing and a hose-shaped shut-off element which is arranged in the cylindrical housing with a connection piece for a compressed air supply, characterized in that the shut-off element is formed from an elastic hose which has a Shore hardness of 40 to 60 and has a fabric at least in sections, and in that the housing is formed from an elastic plastic with a Shore hardness of 75 to 95, at least in sections comprising a fabric and having a Shore hardness of 40 to 60, and in that the housing is formed from an elastic plastic having a Shore hardness of 75 to 95, and in that two diametrically arranged, belly-shaped extensions are formed in the housing for receiving the crimped shut-off element .