mhurhangee/patent-ind-claim-en huggingface dataset:
A method for emulating a guest centralized flag architecture by using a native distributed flag architecture, comprising: receiving an incoming instruction sequence of instructions using a global front end; grouping the instructions to form instruction blocks, wherein each of the instruction blocks comprise two half blocks, wherein each half block is operable to be dispatched independently; scheduling instructions of an instruction block to execute in accordance with a scheduler; and using a distributed flag architecture to emulate a centralized flag architecture for the emulation of guest instruction execution, wherein a respective physical destination is assigned for each type of instruction during an allocation/renaming stage and is recorded in a renaming mapping table data structure, and wherein updated flags to be read by an instruction are determined, and wherein flag fields are merged with a single centralized flag register during a retirement stage. receiving an incoming instruction sequence of instructions using a global front end; grouping the instructions to form instruction blocks, wherein each of the instruction blocks comprise two half blocks, wherein each half block is operable to be dispatched independently; scheduling instructions of an instruction block to execute in accordance with a scheduler; and using a distributed flag architecture to emulate a centralized flag architecture for the emulation of guest instruction execution, wherein a respective physical destination is assigned for each type of instruction during an allocation/renaming stage and is recorded in a renaming mapping table data structure, and wherein updated flags to be read by an instruction are determined, and wherein flag fields are merged with a single centralized flag register during a retirement stage.
A method of wireless communication, comprising: transmitting, using a first wireless communication device (no), control information to a second wireless communication device via a first radio access technology, RAT, including a long term evolution, LTE, RAT, the control information including control information for the first RAT and a second RAT including a non-LTE RAT, a timing structure of the second RAT being aligned to a timing structure of the first RAT; transmitting, using the first wireless communication device , first data to the second wireless communication device via the first RAT during a first transmission time interval, TTI, of the first RAT; transmitting, using the first wireless communication device , second data to the second wireless communication device via the second RAT during the first TTI; receiving, at the first wireless communication device , a first acknowledgement, ACK, or negative acknowledgement, NACK, from the second wireless communication device via the first RAT during a second TTI of the first RAT and according to the timing structure of the first RAT, the first ACK or NACK being related to the first data transmitted via the first RAT during the first TTI; and receiving, at the first wireless communication device , a second ACK or NACK from the second wireless communication device via the first RAT during the second TTI of the first RAT and according to the timing structure of the first RAT, the second ACK or NACK being related to the second data transmitted via the second RAT during the first TTI. transmitting, using a first wireless communication device (no), control information to a second wireless communication device via a first radio access technology, RAT, including a long term evolution, LTE, RAT, the control information including control information for the first RAT and a second RAT including a non-LTE RAT, a timing structure of the second RAT being aligned to a timing structure of the first RAT; transmitting, using the first wireless communication device , first data to the second wireless communication device via the first RAT during a first transmission time interval, TTI, of the first RAT; transmitting, using the first wireless communication device , second data to the second wireless communication device via the second RAT during the first TTI; receiving, at the first wireless communication device , a first acknowledgement, ACK, or negative acknowledgement, NACK, from the second wireless communication device via the first RAT during a second TTI of the first RAT and according to the timing structure of the first RAT, the first ACK or NACK being related to the first data transmitted via the first RAT during the first TTI; and receiving, at the first wireless communication device , a second ACK or NACK from the second wireless communication device via the first RAT during the second TTI of the first RAT and according to the timing structure of the first RAT, the second ACK or NACK being related to the second data transmitted via the second RAT during the first TTI.
A feeder maintenance device comprising: an attachment section configured to have a feeder attached, the feeder being used on a mounting device that mounts components on a board; a cleaning section configured to clean a specified section of the feeder ; and a control section configured to manage history information including at least one of a usage count of a consumable part used in the cleaning section or a measurement value of the consumable part used in the cleaning section , and to report information on a usage state of the consumable part based on the history information . an attachment section configured to have a feeder attached, the feeder being used on a mounting device that mounts components on a board; a cleaning section configured to clean a specified section of the feeder ; and a control section configured to manage history information including at least one of a usage count of a consumable part used in the cleaning section or a measurement value of the consumable part used in the cleaning section , and to report information on a usage state of the consumable part based on the history information .
Working station for a packaging machine , wherein the working station has a lifting unit having a pressure source and a lifting actuator connected to the pressure source and wherein the lifting actuator comprises: a hose comprising a wall having an inner surface and an outer surface disposed opposite the inner surface , a seal having a seal cap engaging the outer surface , and an insert engaging the inner surface , wherein the seal clamps a clamping portion of the wall of the hose between the insert and the seal cap in a fluidtight, preferably gastight, manner, and wherein the insert and the seal cap are screwable to one another characterized in that the insert has a tapered portion . a hose comprising a wall having an inner surface and an outer surface disposed opposite the inner surface , a seal having a seal cap engaging the outer surface , and an insert engaging the inner surface , wherein the seal clamps a clamping portion of the wall of the hose between the insert and the seal cap in a fluidtight, preferably gastight, manner, and wherein the insert and the seal cap are screwable to one another characterized in that the insert has a tapered portion .
An image forming apparatus capable of communicating with a server apparatus , comprising: a receiving means configured to receive a packet from the server apparatus ; a determining means configured to determine whether a packet received by the receiving means is a specific packet; a power supply control means configured to, when the determining means determines that a packet received by the receiving means is the specific packet, bring the image forming apparatus into a first power condition which enables the image forming apparatus to start quickly using data stored in a volatile memory, wherein the first power condition is a state which restricts supply of electric power to the components other than the power supply control means and the volatile memory which stores data for use in starting the image forming apparatus; and a start control means configured to start quickly the image forming apparatus using data stored in the volatile memory . a receiving means configured to receive a packet from the server apparatus ; a determining means configured to determine whether a packet received by the receiving means is a specific packet; a power supply control means configured to, when the determining means determines that a packet received by the receiving means is the specific packet, bring the image forming apparatus into a first power condition which enables the image forming apparatus to start quickly using data stored in a volatile memory, wherein the first power condition is a state which restricts supply of electric power to the components other than the power supply control means and the volatile memory which stores data for use in starting the image forming apparatus; and a start control means configured to start quickly the image forming apparatus using data stored in the volatile memory .
A method of making a lithographic printing plate comprising the steps of: a) image-wise exposing a lithographic printing plate precursor, the printing plate precursor comprising a hydrophilic support and a coating comprising a colorant precursor provided thereon, thereby forming a lithographic image consisting of printing areas and non-printing areas; and b) developing the plate precursor, thereby removing the coating in the non-printing areas from the support; and c) drying the plate precursor; and d) subjecting the lithographic plate to heat or radiation, thereby inducing a colour change of the coating in the printing areas; wherein - before step b) the coating in the non-printing areas and the support are characterised by a CIE 1976 colour difference ΔE 1 which is 5.0 or less; - after step d) the CIE 1976 colour difference ΔE 2 between the coating in the printing areas and the support revealed by the development, is more than 6.8. a) image-wise exposing a lithographic printing plate precursor, the printing plate precursor comprising a hydrophilic support and a coating comprising a colorant precursor provided thereon, thereby forming a lithographic image consisting of printing areas and non-printing areas; and b) developing the plate precursor, thereby removing the coating in the non-printing areas from the support; and c) drying the plate precursor; and d) subjecting the lithographic plate to heat or radiation, thereby inducing a colour change of the coating in the printing areas; - before step b) the coating in the non-printing areas and the support are characterised by a CIE 1976 colour difference ΔE 1 which is 5.0 or less; - after step d) the CIE 1976 colour difference ΔE 2 between the coating in the printing areas and the support revealed by the development, is more than 6.8.
An aircraft interior structure , comprising: a social area section including a countertop surface about which passengers may congregate and socialize, the social area section being accessible from a floor area of an aircraft cabin ; a passenger seating section proximate to an aircraft seat , the passenger seating section including a footwell ; and a partition separating the passenger seating section and a first portion of the social area section, the footwell of the passenger seating section being positioned underneath at least one of the partition or the surface of the social area section in a second portion of the social area section; characterized in that the countertop surface including at least one accessible exterior edge proximate to the floor area, the exterior edge being accessible from the floor area, the countertop surface including at least one accessible interior edge proximate to a bounded space of the floor area, the interior edge being accessible from the bounded space, the countertop surface being surrounded at least in part with standing room in the aircraft cabin, the standing room being configured to not inhibit passage through the floor area of the aircraft cabin. a social area section including a countertop surface about which passengers may congregate and socialize, the social area section being accessible from a floor area of an aircraft cabin ; a passenger seating section proximate to an aircraft seat , the passenger seating section including a footwell ; and a partition separating the passenger seating section and a first portion of the social area section, the footwell of the passenger seating section being positioned underneath at least one of the partition or the surface of the social area section in a second portion of the social area section; characterized in that the countertop surface including at least one accessible exterior edge proximate to the floor area, the exterior edge being accessible from the floor area, the countertop surface including at least one accessible interior edge proximate to a bounded space of the floor area, the interior edge being accessible from the bounded space, the countertop surface being surrounded at least in part with standing room in the aircraft cabin, the standing room being configured to not inhibit passage through the floor area of the aircraft cabin.
A vehicle comprising a body having a cockpit defined therein, wherein: the cockpit contains one or more seats disposed in a single file arrangement, such that a maximum width of the cockpit is arranged to accommodate a width of a single one of the one or more seats, each of the one or more seats being configured to receive a single occupant; the body comprises a first door and a second door for accessing the cockpit, the first door and the second door being arranged on opposite sides of the cockpit, wherein the opposite sides of the cockpit correspond to a left-hand side and a right-hand side of the cockpit, where the left-hand side and right-hand side of the cockpit are defined with respect to an occupant of the one or more seats; when the first door is closed, an upper portion of the first door is arranged to form a first part of a roof of the cockpit; and characterised in that the first part of the roof of the cockpit is larger than any part of the roof of the cockpit formed by the second door when the second door is closed. the cockpit contains one or more seats disposed in a single file arrangement, such that a maximum width of the cockpit is arranged to accommodate a width of a single one of the one or more seats, each of the one or more seats being configured to receive a single occupant; the body comprises a first door and a second door for accessing the cockpit, the first door and the second door being arranged on opposite sides of the cockpit, wherein the opposite sides of the cockpit correspond to a left-hand side and a right-hand side of the cockpit, where the left-hand side and right-hand side of the cockpit are defined with respect to an occupant of the one or more seats; when the first door is closed, an upper portion of the first door is arranged to form a first part of a roof of the cockpit; and characterised in that the first part of the roof of the cockpit is larger than any part of the roof of the cockpit formed by the second door when the second door is closed.
An apparatus for use in a user equipment, UE, the apparatus comprising: receive circuitry to receive, from an evolved Node B, eNB a full System Information Block, SIB, broadcast with a first periodicity, and a differential SIB broadcast with a second periodicity, the differential SIB including updated parameter values that have changed since a previous SIB and excluding at least some parameter values that have not changed since the previous SIB; and control circuitry , coupled with the receive circuitry , to set parameters associated with communication by the UE with the eNB based on the full SIB and to update at least one of the parameter values based on the differential SIB. receive circuitry to receive, from an evolved Node B, eNB a full System Information Block, SIB, broadcast with a first periodicity, and a differential SIB broadcast with a second periodicity, the differential SIB including updated parameter values that have changed since a previous SIB and excluding at least some parameter values that have not changed since the previous SIB; and control circuitry , coupled with the receive circuitry , to set parameters associated with communication by the UE with the eNB based on the full SIB and to update at least one of the parameter values based on the differential SIB.
Extracorporeal blood circulation device including a blood circulation circuit comprising at least one blood extraction line and a blood return line , means arranged to circulate the blood in the circulation circuit, means for measuring at least one parameter influenced by the resistance to flow of blood in the circulation circuit, and said device comprising a source of solution for liquefying blood clots, means (4, 4") for injecting said liquefaction solution into the circulation circuit and a control unit comprising calculation means arranged to determine at least one threshold value of said parameter and record it in a memory, and further arranged to then compare the current value of said parameter with said recorded threshold value, the control unit comprising means for driving said means for injecting said liquefaction solution into the circulation circuit , and the control unit being provided to actuate said means for driving the injection means when said threshold value is exceeded, characterised in that the control unit is provided to actuate said means for driving said injection means so that the liquefaction solution is present in the circulation circuit in an amount and for a time which are predetermined to be necessary and sufficient for enabling the liquefaction of the clot(s) formed in said circuit.
Angle-resolving radar sensor for motor vehicles, having an antenna arrangement with a plurality of antennas which are configured for reception and are arranged in different positions (yi) in a direction (y) in which the radar sensor is angle-resolving, and having a control and evaluation device which is designed for a method of operation in which at least one antenna of the radar signal that is configured for transmission transmits a signal which is received by a plurality of the antennas of the radar sensor that are configured for reception, and the angle (Θ) of a radar target is estimated on the basis of amplitude and/or phase relationships between signals from respective evaluation channels (i) which correspond to different configurations of transmitting and receiving antennas, characterized in that the control and evaluation device is designed to evaluate the signals from the evaluation channels for a respective distance (di) for a respective evaluation channel (i) in said method of operation for an individual estimation of an angle (Θ) of a radar target, wherein the signals from the evaluation channels are evaluated for the respective evaluation channel at a respective frequency position (fa) which corresponds to the relevant distance (di), wherein, on the basis of an angle hypothesis (θhyp) or angle range hypothesis, different distances (di) and different frequency positions are selected for respective evaluation channels (i) at least for an angle hypothesis or angle range hypothesis, wherein the respective frequency positions correspond to the respective distances.
A method comprising: receiving input including: coordinates of one or more regions to be fabricated on a build plate , a laser boundary for each of two or more lasers , wherein the lasers fabricate the one or more regions , and a processing time for each region ; deriving a prioritized sequence of the one or more regions to be fabricated; determining, based on the received coordinates and received laser boundary , one or more potential lasers assignments for each region ; determining, based on the determined potential laser assignments , the prioritized sequence of the one or more regions , and the processing time for each region , a laser-to-region sequence for the one or more lasers to fabricate the one or more regions ; assigning the determined laser-to-region sequence to the one or more lasers for fabrication of the one or more regions , the method is characterised by receiving a smoke drift model , and determining the laser-to-region sequence based on execution of the received smoke drift model , wherein the smoke drift model outputs a lag time for activation of a second laser based on a time for smoke from a first laser to dissipate. receiving input including: coordinates of one or more regions to be fabricated on a build plate , a laser boundary for each of two or more lasers , wherein the lasers fabricate the one or more regions , and a processing time for each region ; deriving a prioritized sequence of the one or more regions to be fabricated; determining, based on the received coordinates and received laser boundary , one or more potential lasers assignments for each region ; determining, based on the determined potential laser assignments , the prioritized sequence of the one or more regions , and the processing time for each region , a laser-to-region sequence for the one or more lasers to fabricate the one or more regions ; assigning the determined laser-to-region sequence to the one or more lasers for fabrication of the one or more regions , the method is characterised by receiving a smoke drift model , and determining the laser-to-region sequence based on execution of the received smoke drift model , wherein the smoke drift model outputs a lag time for activation of a second laser based on a time for smoke from a first laser to dissipate.