mhurhangee/ep-ind-claims huggingface dataset:
A robot in a robot system including a plurality of robots each having a function of identifying a monitoring target and transmitting information related to the monitoring target to a remote site, the robot comprising: an acquiring unit configured to acquire sensing data related to the monitoring target; a communication unit configured to communicate with another nearby robot; and a control unit configured to control the communication unit such that an alert mode transition request signal is transmitted to the other nearby robot if it is determined that a first monitoring target is in an abnormal state on a basis of the sensing data and transition to an alert mode in which a process according to the received alert mode transition request signal is performed if the alert mode transition request signal related to a second monitoring target is received, wherein the control unit determines a state in which the first monitoring target is not present within a monitorable range of the robot as the abnormal state. an acquiring unit configured to acquire sensing data related to the monitoring target; a communication unit configured to communicate with another nearby robot; and a control unit configured to control the communication unit such that an alert mode transition request signal is transmitted to the other nearby robot if it is determined that a first monitoring target is in an abnormal state on a basis of the sensing data and transition to an alert mode in which a process according to the received alert mode transition request signal is performed if the alert mode transition request signal related to a second monitoring target is received, wherein the control unit determines a state in which the first monitoring target is not present within a monitorable range of the robot as the abnormal state.
A knitting method of a knitted fabric using a flat knitting machine, which includes at least a front and a back needle bed and a yarn feeder for supplying a knitting yarn to a plurality of latch needles lined in parallel on the needle beds and in which stitches are transferrable between the front and back needle beds, for forming a widening stitch by split knitting and inserting the widening stitch within a knitting width of the knitted fabric, the split knitting including forming a new stitch following a target stitch, which is a stitch held on one needle bed, while transferring the target stitch to the latch needle of the other needle bed; the knitting method characterized in that assuming a direction toward a side, on which a transfer clip arranged at a side surface of the latch needles lined in parallel on the one needle bed is present, in a longitudinal direction of the one needle bed is a first direction, and an opposite direction is a second direction, the method comprises: step α of moving the yarn feeder in the first direction and performing the split knitting on the target stitch; step β of moving the yarn feeder in the second direction to a position beyond a position of the widening stitch, which is the target stitch transferred to the other needle bed by the split knitting of the step α; step γ of transferring the widening stitch to an empty needle in the one needle bed; step δ of moving the yarn feeder in the first direction to a position beyond the position of the widening stitch transferred in the step γ; and step ε of forming a new stitch on the first direction side of the widening stitch at the same time as or after the step δ. step α of moving the yarn feeder in the first direction and performing the split knitting on the target stitch; step β of moving the yarn feeder in the second direction to a position beyond a position of the widening stitch, which is the target stitch transferred to the other needle bed by the split knitting of the step α; step γ of transferring the widening stitch to an empty needle in the one needle bed; step δ of moving the yarn feeder in the first direction to a position beyond the position of the widening stitch transferred in the step γ; and step ε of forming a new stitch on the first direction side of the widening stitch at the same time as or after the step δ.
A magnetic resonance imaging, MRI, system comprising: a magnetic resonance, MR, scanner; and a wireless MR receive coil arranged to receive an MR signal excited in a subject by the MR scanner and to transmit a radio frequency, RF, signal corresponding to the received MR signal; characterised by a diverse radio receiver system configured to receive the RF signal transmitted by the wireless MR receive coil, the diverse radio receiver system including: an RF circuit board; a plurality of antennas (36, 38) disposed on the RF circuit board; a plurality of RF receivers (32, 34) disposed on the RF circuit board; and switching circuitry disposed on the RF circuit board, the switching circuitry including transmission lines (T1, T2, T3, T4) and switches (SW1, SW2) connecting each RF receiver with a selected one antenna of the plurality of antennas (36, 38) and an impedance matching circuit (ST1, ST2, ST3, ST4) providing impedance matching of the selected one antenna with the RF receiver. a magnetic resonance, MR, scanner; and a wireless MR receive coil arranged to receive an MR signal excited in a subject by the MR scanner and to transmit a radio frequency, RF, signal corresponding to the received MR signal; characterised by a diverse radio receiver system configured to receive the RF signal transmitted by the wireless MR receive coil, the diverse radio receiver system including: an RF circuit board; a plurality of antennas (36, 38) disposed on the RF circuit board; a plurality of RF receivers (32, 34) disposed on the RF circuit board; and switching circuitry disposed on the RF circuit board, the switching circuitry including transmission lines (T1, T2, T3, T4) and switches (SW1, SW2) connecting each RF receiver with a selected one antenna of the plurality of antennas (36, 38) and an impedance matching circuit (ST1, ST2, ST3, ST4) providing impedance matching of the selected one antenna with the RF receiver. an RF circuit board; a plurality of antennas (36, 38) disposed on the RF circuit board; a plurality of RF receivers (32, 34) disposed on the RF circuit board; and switching circuitry disposed on the RF circuit board, the switching circuitry including transmission lines (T1, T2, T3, T4) and switches (SW1, SW2) connecting each RF receiver with a selected one antenna of the plurality of antennas (36, 38) and an impedance matching circuit (ST1, ST2, ST3, ST4) providing impedance matching of the selected one antenna with the RF receiver.
A downhole completion method, comprising: deploying a downhole system into a wellbore, wherein the downhole system includes a completion system and an activator tool mounted within the completion system such that the completion system and the activator tool are deployed into the wellbore simultaneously, the completion system disposed on tubing, the activator tool operatively associated with a tubular string located in the tubing, the activator tool and the completion system arranged so that, on deploying the activator tool and the completion system downhole, the activator tool is located downhole from at least a portion of the completion system; and withdrawing the activator tool from the completion system using the tubular string operatively associated with the activator tool to operate at least a portion of the completion system, wherein performance of a first operation of a downhole tool (1006;1008) of the completion system by pulling the activator tool uphole activates a lock provided on at least one of the downhole tool (1006,1008) and the activator tool to restrict performance of a second operation of the downhole tool (1006;1008), and wherein changing the configuration of at least one of the activator tool and the downhole tool (1006;1008) deactivates the lock. deploying a downhole system into a wellbore, wherein the downhole system includes a completion system and an activator tool mounted within the completion system such that the completion system and the activator tool are deployed into the wellbore simultaneously, the completion system disposed on tubing, the activator tool operatively associated with a tubular string located in the tubing, the activator tool and the completion system arranged so that, on deploying the activator tool and the completion system downhole, the activator tool is located downhole from at least a portion of the completion system; and withdrawing the activator tool from the completion system using the tubular string operatively associated with the activator tool to operate at least a portion of the completion system,
A wireless communication method for a mobile station in communication with a wide area network, the method comprising: sending via the wide area network a request to a base station of the wide area network to establish a first communication session with a wireless local area network operating in the vicinity of the mobile station; receiving via the wide area network authorization information for one or more wireless local area networks from the base station of the wide area network in response to the request; selecting a first wireless local area network from among the one or more wireless local area networks; establishing, by the mobile station, the first communication session with the selected first wireless local area network using the received authorization information from the wide area network; receiving a first control signal for the established first communication session via the wide area network for changing operating parameters of the wireless local area network; and receiving a data signal for the established first communication session via the first wireless local area network. sending via the wide area network a request to a base station of the wide area network to establish a first communication session with a wireless local area network operating in the vicinity of the mobile station; receiving via the wide area network authorization information for one or more wireless local area networks from the base station of the wide area network in response to the request; selecting a first wireless local area network from among the one or more wireless local area networks; establishing, by the mobile station, the first communication session with the selected first wireless local area network using the received authorization information from the wide area network; receiving a first control signal for the established first communication session via the wide area network for changing operating parameters of the wireless local area network; and receiving a data signal for the established first communication session via the first wireless local area network.
A method comprising: accessing an implicit certificate associated with an entity, wherein the implicit certificate includes a public key reconstruction value of the entity and identity information of the entity, and the implicit certificate having been generated by a subordinate certificate authority that is part of a chain of certificate authorities, the chain further comprising one or more superior certificate authorities (204a, 204b); generating a first value based on evaluating a hash function, wherein the hash function is evaluated based on the public key reconstruction value of the entity, public key information of the subordinate certificate authority and public key information of at least one of the one or more superior certificate authorities (204a, 204b), the public key information comprising at least one of a public key and a public key reconstruction value of the respective certificate authority (204a, 204b, 204x); and generating, implicitly or explicitly, a public key value of the entity based on the first value. accessing an implicit certificate associated with an entity, wherein the implicit certificate includes a public key reconstruction value of the entity and identity information of the entity, and the implicit certificate having been generated by a subordinate certificate authority that is part of a chain of certificate authorities, the chain further comprising one or more superior certificate authorities (204a, 204b); generating a first value based on evaluating a hash function, wherein the hash function is evaluated based on the public key reconstruction value of the entity, public key information of the subordinate certificate authority and public key information of at least one of the one or more superior certificate authorities (204a, 204b), the public key information comprising at least one of a public key and a public key reconstruction value of the respective certificate authority (204a, 204b, 204x); and generating, implicitly or explicitly, a public key value of the entity based on the first value.
A method for using ultrasonic information for ablation treatment of pathology comprising: acquiring a treatment planning image of pathology to be treated by ablation and one or more blood vessels in proximity to the pathology; identifying pathology to be treated by ablation in an ultrasound image; identifying one or more blood vessels that are in close proximity to the pathology by placing a surface shape at a region of interest in the ultrasound image; acquiring three dimensional ultrasound Doppler data from the blood flow of the identified blood vessels by acquiring ultrasound Doppler data at an intersection of flow of the one or more blood vessels with the surface shape; calculating the amount of blood flowing through the identified blood vessels using the ultrasound Doppler data; and developing an ablation treatment plan that considers a heat transport characteristic of the amount of blood flowing through the identified blood vessels, wherein placing the surface shape is performed automatically using knowledge of the location of the blood vessels obtained by registration of the ultrasound image with the treatment planning image. acquiring a treatment planning image of pathology to be treated by ablation and one or more blood vessels in proximity to the pathology; identifying pathology to be treated by ablation in an ultrasound image; identifying one or more blood vessels that are in close proximity to the pathology by placing a surface shape at a region of interest in the ultrasound image; acquiring three dimensional ultrasound Doppler data from the blood flow of the identified blood vessels by acquiring ultrasound Doppler data at an intersection of flow of the one or more blood vessels with the surface shape; calculating the amount of blood flowing through the identified blood vessels using the ultrasound Doppler data; and developing an ablation treatment plan that considers a heat transport characteristic of the amount of blood flowing through the identified blood vessels, wherein placing the surface shape is performed automatically using knowledge of the location of the blood vessels obtained by registration of the ultrasound image with the treatment planning image.
Coupling member for a sterile flange connection for connecting fluid channels, comprising: - a fluid-contacting surface, - a first opening end and a second opening end of the fluid-contacting surface, - a flange part at the first opening end and/or at the second opening end, - a connection plane (7, 8), wherein the connection plane (7, 8) is arranged perpendicular to an axial coupling element axis of the coupling member and terminates the respective opening end (3, 4) of the coupling element, - and a foil, wherein the foil closes at least the first opening end of the fluid-contacting surface, wherein the coupling member comprises at least one foil holding element separate from the coupling member with a foil contacting surface to which the foil is peelably connected, characterized in that the at least one foil holding element is formed in the region of the connection plane and the at least one foil holding element is formed in at least one foil holding element recess, wherein the foil contacting surface of the foil holding element terminates with the connection plane, wherein the foil holding element recess is incorporated in the flange part. - a fluid-contacting surface, - a first opening end and a second opening end of the fluid-contacting surface, - a flange part at the first opening end and/or at the second opening end, - a connection plane (7, 8), wherein the connection plane (7, 8) is arranged perpendicular to an axial coupling element axis of the coupling member and terminates the respective opening end (3, 4) of the coupling element, - and a foil, wherein the foil closes at least the first opening end of the fluid-contacting surface, wherein the coupling member comprises at least one foil holding element separate from the coupling member with a foil contacting surface to which the foil is peelably connected,
A method for detecting or quantifying an analyte in a sample, comprising: (a) incubating the sample with a surface that is coated with a binding agent capable of binding to the analyte; (b) incubating the surface with the same or a different binding agent of the analyte that is biotin-labelled; (c) incubating the surface with unlabelled (strept)avidin; (d) without removing the (strept)avidin, further incubating the surface with biotin labelled with a detectable label; (e) washing the surface to remove reagents not bound to the surface; and (f) detecting and/or quantitating the label and thereby detecting or quantifying the analyte. (a) incubating the sample with a surface that is coated with a binding agent capable of binding to the analyte; (b) incubating the surface with the same or a different binding agent of the analyte that is biotin-labelled; (c) incubating the surface with unlabelled (strept)avidin; (d) without removing the (strept)avidin, further incubating the surface with biotin labelled with a detectable label; (e) washing the surface to remove reagents not bound to the surface; and (f) detecting and/or quantitating the label and thereby detecting or quantifying the analyte.
A method of operation of a wireless access node (12, 30) in dense deployment of wireless access nodes in a cellular communication network (10, 18) characterised by: operating a transmitter and a receiver of the wireless access node (12, 30) according to a discontinuous transmit and discontinuous receive mode of operation; and receiving, from a Mobile Managing Entity of the network, a wakeup signal, wherein the wakeup signal is indicative of: an active alertness state for the wireless access node (12, 30) if the wireless access node (12, 30) serves the cell of a new user equipment device in the network; or an intermediate alertness state for the wireless access node (12, 30) if the wireless access node (12, 30) serves the cell neighboring the cell of the user equipment device; controlling one or more duty cycles for the discontinuous transmit and discontinuous receive mode of operation based on the alertness state of the wakeup signal. operating a transmitter and a receiver of the wireless access node (12, 30) according to a discontinuous transmit and discontinuous receive mode of operation; and receiving, from a Mobile Managing Entity of the network, a wakeup signal, wherein the wakeup signal is indicative of: an active alertness state for the wireless access node (12, 30) if the wireless access node (12, 30) serves the cell of a new user equipment device in the network; or an intermediate alertness state for the wireless access node (12, 30) if the wireless access node (12, 30) serves the cell neighboring the cell of the user equipment device; controlling one or more duty cycles for the discontinuous transmit and discontinuous receive mode of operation based on the alertness state of the wakeup signal. an active alertness state for the wireless access node (12, 30) if the wireless access node (12, 30) serves the cell of a new user equipment device in the network; or an intermediate alertness state for the wireless access node (12, 30) if the wireless access node (12, 30) serves the cell neighboring the cell of the user equipment device; controlling one or more duty cycles for the discontinuous transmit and discontinuous receive mode of operation based on the alertness state of the wakeup signal.
An alkoxymagnesium comprising secondary particles each of which is an aggregate of primary particles having an average particle diameter of less than 1 μm, wherein a ratio of an average particle diameter of the primary particles/an average particle diameter of the secondary particles is 0.1 or less, a total pore volume is 0.5 to 1 cm 3 /g, a specific surface area is less than 50 m 2 /g, and a particle size distribution index (SPAN) is 1 or less.
A container having a closure device and a cover, wherein the closure device has an upper cross-section that is substantially of round, triangular, or polygonal shape; and wherein at least two retaining elements (8, 8') are arranged in the region of the lower cross-section at the closure device; wherein the cover has a reception device (9, 9') for the retaining elements (8, 8') of the closure device that ensure that the cover is retained by the closure device; and wherein the container has a substantially round opening into which the closure device engages in the closed state of the container, characterized in that this upper cross-section merges into a lower non-round cross-section that is defined by n corners and by n arc-shaped lines connecting these corners, where n is a whole number from 2 to 6; wherein the corners project, viewed axially, over the substantially round, triangular, or polygonal upper cross-section and the arc-shaped lines are set back, viewed axially, behind the substantially round, triangular, or polygonal upper cross-section;
Spark plug adapted for igniting a gaseous atmosphere, the spark plug having a longitudinal axis and comprising: ▪ an outer housing extending along the axis, having a first and a second extremity (30, 31), axially opposed and providing a fixing function for the spark plug in the gaseous atmosphere, ▪ an insulator ▪ an electrode comprising a spike axially projecting from the insulator towards the second extremity of the outer housing, ▪ a serial resonator comprising an induction winding interposed between a supply terminal supplying excitation alternating current, and an output terminal, the serial resonator having a specific frequency comprised between 3 MHz and 10 MHz, the electrode ionizing the gaseous atmosphere when the serial resonator delivers an overvoltage to the output terminal, the overvoltage being no higher than 30 kV of alternating current, characterized in that the following characteristics have been verified: - the axial distance between the induction winding and a free extremity of the spike is comprised between 2 cm and 6 cm, - said free extremity comprises at least one first head having a radius with a curvature no larger than 250 μm. ▪ an outer housing extending along the axis, having a first and a second extremity (30, 31), axially opposed and providing a fixing function for the spark plug in the gaseous atmosphere, ▪ an insulator ▪ an electrode comprising a spike axially projecting from the insulator towards the second extremity of the outer housing, ▪ a serial resonator comprising an induction winding interposed between a supply terminal supplying excitation alternating current, and an output terminal, the serial resonator having a specific frequency comprised between 3 MHz and 10 MHz, - the axial distance between the induction winding and a free extremity of the spike is comprised between 2 cm and 6 cm, - said free extremity comprises at least one first head having a radius with a curvature no larger than 250 μm.