mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: logic circuitry configured to: receive, from a state machine , a command indicating that an access to a base address register deployed on a memory controller coupled to the logic circuitry has occurred, the command indicative of a data access involving a persistent memory device , a non-persistent memory device , or both; determine, by the logic circuitry, that the access command corresponds to an operation to divert data from the non-persistent memory device to the persistent memory device ; generate, by the logic circuitry and responsive to receipt of the access command and the determination, an interrupt signal, wherein the interrupt signal is generated by accessing a second base address register and using an interrupt component ; and cause, by the state machine , the interrupt signal to be asserted on a host coupleable to the logic circuitry as part of the operation to divert data from the non-persistent memory device to the persistent memory device . receive, from a state machine , a command indicating that an access to a base address register deployed on a memory controller coupled to the logic circuitry has occurred, the command indicative of a data access involving a persistent memory device , a non-persistent memory device , or both; determine, by the logic circuitry, that the access command corresponds to an operation to divert data from the non-persistent memory device to the persistent memory device ; generate, by the logic circuitry and responsive to receipt of the access command and the determination, an interrupt signal, wherein the interrupt signal is generated by accessing a second base address register and using an interrupt component ; and cause, by the state machine , the interrupt signal to be asserted on a host coupleable to the logic circuitry as part of the operation to divert data from the non-persistent memory device to the persistent memory device .
An acoustically absorbent cell for an acoustic panel, comprising a layer with a porous matrix incorporating a plurality of acoustic resonators (A 1 -A 4 , B 1 -B 6 , C1-C4, D1-D2) between a first face and a second face of the porous matrix , the resonators (A1-A4, B1-B6, C1-C4, D1-D2) being ordered so that, in a direction extending substantially perpendicular to the first face and the second face , at least one first resonator is arranged between the first face and at least one second resonator which is arranged between the second face and the at least one first resonator, the resonators (A 1 -A 4 , B 1 -B 6 ) each comprising at least one opening making a resonant cavity of the resonator communicate with the porous matrix surrounding the resonator, characterised in that the opening of at least one of said at least one first resonator (A 2 , B 2 ) emerges in the opening of a cavity of the first face.
A network interface device arranged to couple a host computing device to a network, said network interface device comprising: a first interface configured to receive data from the host computing device; a first field programmable gate array application; and a transport engine for protocol processing data for transmission over the network, wherein the first interface is configured to: direct at least some of the data received from the host to the first field programmable gate array application, wherein the network interface device is characterised in that the first interface is configured to: direct remaining data received from the host to the transport engine for protocol processing and transmission over the network without said remaining data being processed by the field programmable gate array application, wherein the first field programmable gate array application is configured to perform processing of the at least some of the received data. a first interface configured to receive data from the host computing device; a first field programmable gate array application; and a transport engine for protocol processing data for transmission over the network, wherein the first interface is configured to: direct at least some of the data received from the host to the first field programmable gate array application, wherein the network interface device is characterised in that the first interface is configured to: direct remaining data received from the host to the transport engine for protocol processing and transmission over the network without said remaining data being processed by the field programmable gate array application, wherein the first field programmable gate array application is configured to perform processing of the at least some of the received data.
Use of a dual ovenable biaxially oriented polyester film as top web in vacuum skin packaging, said film comprising, preferably consisting of, - an outer heat sealable polyester layer a), - an inner polyester base layer b), comprising a polyester having an intrinsic viscosity (I.V.) measured according to ASTM D4603-03 higher than 0.75 dl/g, and - an outer polyester layer c). - an outer heat sealable polyester layer a), - an inner polyester base layer b), comprising a polyester having an intrinsic viscosity (I.V.) measured according to ASTM D4603-03 higher than 0.75 dl/g, and - an outer polyester layer c).
Portable inhaler for a fluid having a preferably insertable container containing the fluid and having a monitoring device for detecting use of the inhaler , wherein the monitoring device is constructed so that it automatically switches off or is deactivated or goes into standby mode, characterized in that the monitoring device comprises an acceleration sensor which can measure or detect accelerations in every three-dimensional direction, wherein the monitoring device is configured to determine a path of movement from acceleration values taking account of respective times, and wherein the monitoring device is adapted to be activated or woken up by detection of movement of the inhaler by means of the acceleration sensor .
A method for performing wireless communication by a first device , the method comprising: transmitting a physical sidelink control channel, PSCCH, to a second device ; transmitting a physical sidelink shared channel, PSSCH, to the second device based on the PSCCH; determining a physical sidelink feedback channel, PSFCH, resource related to the PSSCH, based on an index of a slot and an index of a subchannel related to the PSSCH; monitoring a hybrid automatic repeat request, HARQ, feedback during the PSFCH resource; and declaring sidelink, SL, radio link failure, RLF, for a connection between the first device and the second device , based on a discontinuous transmission, DTX, counter reaching a maximum threshold related to DTX, wherein a physical layer of the first device does not transfer the HARQ feedback to a medium access control, MAC, layer of the first device , based on the HARQ feedback related to the PSSCH not being detected during the monitoring, and wherein the DTX counter is incremented by 1 by the MAC layer of the first device , based on the HARQ feedback not being detected during the monitoring. transmitting a physical sidelink control channel, PSCCH, to a second device ; transmitting a physical sidelink shared channel, PSSCH, to the second device based on the PSCCH; determining a physical sidelink feedback channel, PSFCH, resource related to the PSSCH, based on an index of a slot and an index of a subchannel related to the PSSCH; monitoring a hybrid automatic repeat request, HARQ, feedback during the PSFCH resource; and declaring sidelink, SL, radio link failure, RLF, for a connection between the first device and the second device , based on a discontinuous transmission, DTX, counter reaching a maximum threshold related to DTX, wherein a physical layer of the first device does not transfer the HARQ feedback to a medium access control, MAC, layer of the first device , based on the HARQ feedback related to the PSSCH not being detected during the monitoring, and wherein the DTX counter is incremented by 1 by the MAC layer of the first device , based on the HARQ feedback not being detected during the monitoring.
A mobile harvesting machine , comprising: a user interface logic operable to control a user interface mechanisms and to detect inputs through the user interface mechanisms , a performance issue detection logic operable to generate a user interface on the user interface mechanisms with an issue selection user input mechanism that is actuatable to identify a machine performance issue, and to detect actuation of the issue selection user input mechanism; a solution identification system operable to identify a solution that has corresponding actions, based on the identified machine performance issue; and a control signal generator operable to generate an action signal based on the actions corresponding to the identified solution, characterized in that the harvesting machine comprises a severity level detection logic that is operable to generate a severity level user input mechanism that is actuatable to identify a severity level corresponding to the identified machine performance issue, and to detect actuation of the severity level user input mechanism; and that the solution identification system is operable to identify the solution based on the identified machine performance issue and the corresponding severity level. a user interface logic operable to control a user interface mechanisms and to detect inputs through the user interface mechanisms , a performance issue detection logic operable to generate a user interface on the user interface mechanisms with an issue selection user input mechanism that is actuatable to identify a machine performance issue, and to detect actuation of the issue selection user input mechanism; a solution identification system operable to identify a solution that has corresponding actions, based on the identified machine performance issue; and a control signal generator operable to generate an action signal based on the actions corresponding to the identified solution,
A communication terminal (1-4) capable of simultaneously communicating through a plurality of carriers by carrier aggregation, the communication terminal (1-4) comprising: a receiver, which, in operation, receives a radio wave transmitted through a plurality of carriers including a primary component carrier and receives a threshold value from a base station of a connected cell; and circuitry, which, in operation, : measures a reception quality of the received radio wave to obtain a measured value of a primary carrier in accordance with information specifying the primary carrier chosen from the plurality of carriers; compares the measured value of the primary carrier to the threshold value; and searches for another cell when the measured value of the primary carrier is lower than the threshold value. a receiver, which, in operation, receives a radio wave transmitted through a plurality of carriers including a primary component carrier and receives a threshold value from a base station of a connected cell; and circuitry, which, in operation, : measures a reception quality of the received radio wave to obtain a measured value of a primary carrier in accordance with information specifying the primary carrier chosen from the plurality of carriers; compares the measured value of the primary carrier to the threshold value; and searches for another cell when the measured value of the primary carrier is lower than the threshold value. measures a reception quality of the received radio wave to obtain a measured value of a primary carrier in accordance with information specifying the primary carrier chosen from the plurality of carriers; compares the measured value of the primary carrier to the threshold value; and searches for another cell when the measured value of the primary carrier is lower than the threshold value.
A modified oligonucleotide according to the following formula: (SEQ ID NO: 33) or a salt thereof.
A method of operating a lower limb device comprising at least a powered knee joint , the method comprising: configuring the lower limb device to a first state in a finite state model for a running activity mode; based on real-time sensor information for the lower limb device , transitioning the lower limb device from a current state in the finite state model to a subsequent state in the finite state model when a pre-defined criterion for transitioning to the subsequent state is met; and repeating the transitioning while the running activity mode remains the current activity mode, wherein the finite state model comprises at least one stance state and at least one swing state, wherein the at least one stance state comprises at least one absorption mode (Mode 0) and at least one propulsion mode (Mode 1), and wherein the transitioning comprises causing the powered knee joint to generate a first amount of power for knee extension during the at least one propulsion mode (Mode 1) and to dissipate a second amount of power during the absorption mode (Mode 0), wherein the first amount of power is at least equal to the second amount of power. configuring the lower limb device to a first state in a finite state model for a running activity mode; based on real-time sensor information for the lower limb device , transitioning the lower limb device from a current state in the finite state model to a subsequent state in the finite state model when a pre-defined criterion for transitioning to the subsequent state is met; and repeating the transitioning while the running activity mode remains the current activity mode, wherein the finite state model comprises at least one stance state and at least one swing state, wherein the at least one stance state comprises at least one absorption mode (Mode 0) and at least one propulsion mode (Mode 1), and wherein the transitioning comprises causing the powered knee joint to generate a first amount of power for knee extension during the at least one propulsion mode (Mode 1) and to dissipate a second amount of power during the absorption mode (Mode 0), wherein the first amount of power is at least equal to the second amount of power.
An adjustable steering column for a steer-by-wire steering device of a motor vehicle, comprising an actuating unit which comprises a steering spindle which is mounted so as to be rotatable about a longitudinal axis in a casing unit , wherein the casing unit has a first casing tube in which at least one second casing tube is arranged in a rotationally fixed fashion with respect to the longitudinal axis and is mounted so as to be movable axially in a telescopic fashion, wherein an actuating drive is connected to the first casing tube and the second casing tube , by which actuating drive the second casing tube can be moved in and out axially relative to the first casing tube , and which actuating drive comprises a spindle drive with a threaded spindle which is arranged parallel to the longitudinal axis , can be driven in rotation by an electric servomotor , is supported on a casing tube and is screwed into a spindle nut which is attached in a rotationally fixed manner to the other casing tube , wherein the threaded spindle extends within the first casing tube , and the spindle nut is attached to the second casing tube , characterized in that an actuator , which interacts with the steering spindle and by which a torque can be applied to the steering spindle , is arranged in the casing unit .
A processor comprising: a first processor element and a plurality of additional processor elements ; the first processor element to perform a user-level fork instruction of a software thread, the first processor element including: a decoder to decode the user-level fork instruction , wherein the user-level fork instruction is to indicate at least one instruction address; and a user-level thread fork module , in response to the user-level fork instruction being decoded, to configure each of the plurality of processor elements to perform instructions in parallel, characterized in that the user-level fork instruction is to indicate a number of the plurality of additional processor elements, and wherein the number of the plurality of additional processor elements is dynamically allocated from among the plurality of additional processor elements while at least one of the plurality of additional processor elements is not used to perform instructions in parallel. a first processor element and a plurality of additional processor elements ; the first processor element to perform a user-level fork instruction of a software thread, the first processor element including: a decoder to decode the user-level fork instruction , wherein the user-level fork instruction is to indicate at least one instruction address; and a user-level thread fork module , in response to the user-level fork instruction being decoded, to configure each of the plurality of processor elements to perform instructions in parallel, a decoder to decode the user-level fork instruction , wherein the user-level fork instruction is to indicate at least one instruction address; and a user-level thread fork module , in response to the user-level fork instruction being decoded, to configure each of the plurality of processor elements to perform instructions in parallel, characterized in that the user-level fork instruction is to indicate a number of the plurality of additional processor elements, and wherein the number of the plurality of additional processor elements is dynamically allocated from among the plurality of additional processor elements while at least one of the plurality of additional processor elements is not used to perform instructions in parallel.
A polymeric mesh, comprising: an absorbable polymeric fiber; and a non-absorbable synthetic polymeric fiber, wherein said absorbable polymeric fiber and said non-absorbable polymeric fiber are co-knit to form an interdependent mesh structure, wherein said absorbable fiber and non-absorbable fiber are co-knit using different knit patterns, wherein said absorbable fiber substantially degrades in vivo in a period of 1-12 weeks, characterized in that said absorbable fiber comprises a glycolide-caprolactone-trimethylene carbonate copolymer. an absorbable polymeric fiber; and a non-absorbable synthetic polymeric fiber, wherein said absorbable polymeric fiber and said non-absorbable polymeric fiber are co-knit to form an interdependent mesh structure, wherein said absorbable fiber and non-absorbable fiber are co-knit using different knit patterns, wherein said absorbable fiber substantially degrades in vivo in a period of 1-12 weeks, characterized in that said absorbable fiber comprises a glycolide-caprolactone-trimethylene carbonate copolymer.
A method, comprising: (a) performing untargeted sequencing on a first nucleic acid sample of a subject to generate a first data set, wherein said first data set comprises untargeted sequencing data comprising nucleic acid sequences, wherein said untargeted sequencing data is at least 300 megabases of untargeted sequencing data; (b) performing target-specific sequencing on a second nucleic acid sample of said subject to generate a second data set, wherein said second data set comprises target-specific sequencing data comprising nucleic acid sequences derived from a subset of a genome of said subject, wherein said target-specific sequencing data is at greater depth than said untargeted sequencing data; (c) combining, with the aid of a computer processor, said first data set and said second data set to produce a combined data set comprising said untargeted sequencing data and said target-specific sequencing data, wherein said combining comprises removing redundant sequences; and (d) generating, with the aid of a computer processor, an output derived from said combined data set, wherein said output identifies a presence or absence of one or more polymorphisms of said first nucleic acid sample and/or said second nucleic acid sample. (a) performing untargeted sequencing on a first nucleic acid sample of a subject to generate a first data set, wherein said first data set comprises untargeted sequencing data comprising nucleic acid sequences, wherein said untargeted sequencing data is at least 300 megabases of untargeted sequencing data; (b) performing target-specific sequencing on a second nucleic acid sample of said subject to generate a second data set, wherein said second data set comprises target-specific sequencing data comprising nucleic acid sequences derived from a subset of a genome of said subject, wherein said target-specific sequencing data is at greater depth than said untargeted sequencing data; (c) combining, with the aid of a computer processor, said first data set and said second data set to produce a combined data set comprising said untargeted sequencing data and said target-specific sequencing data, wherein said combining comprises removing redundant sequences; and (d) generating, with the aid of a computer processor, an output derived from said combined data set, wherein said output identifies a presence or absence of one or more polymorphisms of said first nucleic acid sample and/or said second nucleic acid sample.
A mail singulator system comprising: a) a loading conveyor configured to advance a mail stack comprising a plurality of mailpieces having a front mailpiece ; and b) a controller ; characterized in that the mail singulator system further comprises: c) an optical panel apparatus comprising an optical panel comprising: i) a mail contact surface ; and ii) an optical surface ; d) an optical sensor that determines a position of the optical panel with respect to the optical sensor ; wherein the optical panel is configured between the front mailpiece and the optical sensor ; wherein the controller changes a loading conveyor speed based on the position of the optical panel . a) a loading conveyor configured to advance a mail stack comprising a plurality of mailpieces having a front mailpiece ; and b) a controller ; c) an optical panel apparatus comprising an optical panel comprising: i) a mail contact surface ; and ii) an optical surface ; i) a mail contact surface ; and ii) an optical surface ; d) an optical sensor that determines a position of the optical panel with respect to the optical sensor ; wherein the optical panel is configured between the front mailpiece and the optical sensor ; wherein the controller changes a loading conveyor speed based on the position of the optical panel .
A differential mode and common mode inductor , comprising: a first magnetic core comprising a first middle core part , a first lateral core part and a second lateral core part , wherein the first middle core part is disposed between the first lateral core part and the second lateral core part ; a second magnetic core partially aligned to the first magnetic core and comprising a second middle core part , a third lateral core part and a fourth lateral core part , wherein the second middle core part is disposed between the third lateral core part and the fourth lateral core part , the third lateral core part is located beside the first middle core part , and the second middle core part is located beside the second lateral core part ; a first winding wound around the first middle core part and the third lateral core part ; and a second winding wound around the second middle core part and the second lateral core part . a first magnetic core comprising a first middle core part , a first lateral core part and a second lateral core part , wherein the first middle core part is disposed between the first lateral core part and the second lateral core part ; a second magnetic core partially aligned to the first magnetic core and comprising a second middle core part , a third lateral core part and a fourth lateral core part , wherein the second middle core part is disposed between the third lateral core part and the fourth lateral core part , the third lateral core part is located beside the first middle core part , and the second middle core part is located beside the second lateral core part ; a first winding wound around the first middle core part and the third lateral core part ; and a second winding wound around the second middle core part and the second lateral core part .