mhurhangee/ep-ind-claims huggingface dataset:
A method in a network device for performing Two-Way Active Measurement Protocol, TWAMP, performance measurements, PMs, at a finer level of granularity by distinguishing different TWAMP E2E paths between a Sender and Reflector by sequence of IP addresses as learned from TWAMP path discovery, the method comprising: performing TWAMP path discovery to determine a sequence of IP addresses of a forward direction TWAMP E2E path to be traversed by two different TWAMP test sessions between a Sender and a Reflector; transmitting additional TWAMP test request packets for the different TWAMP test sessions and receiving TWAMP test reply messages responsive to respective ones of the TWAMP test request packets; and determining, responsive to the TWAMP test reply messages, a PM that is specific to the different sequences of IP addresses of the forward direction TWAMP E2E paths traversed by the two different TWAMP test sessions. performing TWAMP path discovery to determine a sequence of IP addresses of a forward direction TWAMP E2E path to be traversed by two different TWAMP test sessions between a Sender and a Reflector; transmitting additional TWAMP test request packets for the different TWAMP test sessions and receiving TWAMP test reply messages responsive to respective ones of the TWAMP test request packets; and determining, responsive to the TWAMP test reply messages, a PM that is specific to the different sequences of IP addresses of the forward direction TWAMP E2E paths traversed by the two different TWAMP test sessions.
A method for wireless communications by a user equipment, UE, comprising switching between different antenna configurations for different protocols for at least one of uplink or downlink communications; determining switch points that define when a decision for the UE to switch between different antenna configurations for different protocols for at least one of uplink or downlink communications is allowed based on timing of at least one of transmitting channel state information, CSI, feedback or transmitting uplink reference signals; and adjusting parameters for transmitting at least one of the CSI feedback or the uplink reference signals based on the determination.
A printing apparatus comprising: a plurality of can body support members that are provided rotatably to support can bodies, the plurality of can body support members performing a movement; an image forming unit that performs image formation onto the can bodies supported by the can body support members; and a transmission member, characterised in that the transmission member is configured to perform circulating movement through each of the plurality of can body support members in a state where the movement is stopped to transmit a rotational driving force to each of the plurality of can body support members in a state where the movement is stopped. a plurality of can body support members that are provided rotatably to support can bodies, the plurality of can body support members performing a movement; an image forming unit that performs image formation onto the can bodies supported by the can body support members; and a transmission member, characterised in that the transmission member is configured to perform circulating movement through each of the plurality of can body support members in a state where the movement is stopped to transmit a rotational driving force to each of the plurality of can body support members in a state where the movement is stopped.
A method of locating and identifying a plurality of signal sources, (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), said plurality of signal sources comprising sources of visible and/or invisible light (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) and being located within a predetermined space, the method comprising: at a camera (33, 34, 35; 50, 51, 52; 63, 64, 65, 66) receiving over a plurality of image frames a respective identification code from each of said signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), each of said identification codes comprising a plurality of temporally spaced pulses of visible and/or invisible light uniquely identifying one of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) within said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70); processing the plurality of image frames to generate identification data for each respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) from said identification code received from the respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) based upon said plurality of temporally spaced pulses of visible and/or invisible light; generating location data indicative of locations of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), based upon said identification codes; and associating said location data with said identification data. at a camera (33, 34, 35; 50, 51, 52; 63, 64, 65, 66) receiving over a plurality of image frames a respective identification code from each of said signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), each of said identification codes comprising a plurality of temporally spaced pulses of visible and/or invisible light uniquely identifying one of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) within said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70); processing the plurality of image frames to generate identification data for each respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) from said identification code received from the respective signal source (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70) based upon said plurality of temporally spaced pulses of visible and/or invisible light; generating location data indicative of locations of said plurality of signal sources (2, A, B, C, D, P, Q, R, S, T; 67, 68, 69, 70), based upon said identification codes; and associating said location data with said identification data.
A semiconductor device, comprising: a source region (102, 308, 434') and a drain region (104, 300) of a first conductivity type; a body region (106, 310, 432') of a second conductivity type between the source region (102, 308, 434') and the drain region (104, 300); a gate (108, 202, 312, 314, 316) configured to control current through a channel of the body region (106, 310, 432'); a drift zone (116, 302, 400) of the first conductivity type between the body region (106, 310, 432') and the drain region (104, 300); a superjunction structure formed by a plurality of regions (118, 412) of the second conductivity type laterally spaced apart from one another by intervening regions (120, 414) of the drift zone (116, 302, 400); and a diffusion barrier structure disposed along sidewalls of the regions (118, 412) of the second conductivity type, characterized in that the diffusion barrier structure comprises alternating layers of Si and oxygen-doped Si and a Si capping layer on the alternating layers of Si and oxygen-doped Si. a source region (102, 308, 434') and a drain region (104, 300) of a first conductivity type; a body region (106, 310, 432') of a second conductivity type between the source region (102, 308, 434') and the drain region (104, 300); a gate (108, 202, 312, 314, 316) configured to control current through a channel of the body region (106, 310, 432'); a drift zone (116, 302, 400) of the first conductivity type between the body region (106, 310, 432') and the drain region (104, 300); a superjunction structure formed by a plurality of regions (118, 412) of the second conductivity type laterally spaced apart from one another by intervening regions (120, 414) of the drift zone (116, 302, 400); and a diffusion barrier structure disposed along sidewalls of the regions (118, 412) of the second conductivity type, characterized in that the diffusion barrier structure comprises alternating layers of Si and oxygen-doped Si and a Si capping layer on the alternating layers of Si and oxygen-doped Si.
A method for controlling a boom assembly, the method comprising: providing a boom assembly having an end effector, the boom assembly including a plurality of linear and/or rotary actuators wherein each of the actuators is in fluid communication with a flow control valve; converting a desired coordinate of the end effector of the boom assembly from Cartesian space to actuator space; calculating a deflection error of the end effector due to bending of the boom assembly, which is a function of the length and the rotation angle of the boom assembly, based on a measured axial and/or rotational displacement of the actuators; calculating a resultant desired coordinate based on the desired coordinate and the deflection error; generating a control signal based on the resultant desired coordinate and the measured axial and/or rotational displacement of the actuators; shaping the control signal to reduce vibration of the boom assembly; and transmitting the shaped control signal to the flow control valves. providing a boom assembly having an end effector, the boom assembly including a plurality of linear and/or rotary actuators wherein each of the actuators is in fluid communication with a flow control valve; converting a desired coordinate of the end effector of the boom assembly from Cartesian space to actuator space; calculating a deflection error of the end effector due to bending of the boom assembly, which is a function of the length and the rotation angle of the boom assembly, based on a measured axial and/or rotational displacement of the actuators; calculating a resultant desired coordinate based on the desired coordinate and the deflection error; generating a control signal based on the resultant desired coordinate and the measured axial and/or rotational displacement of the actuators; shaping the control signal to reduce vibration of the boom assembly; and transmitting the shaped control signal to the flow control valves.
A battery control device, comprising: a first state of charge, SOC, calculation unit which is configured to calculate a first battery charging state (SOCv) on the basis of a temperature and a voltage value of a battery; and a second SOC calculation unit which is configured to calculate a second battery charging state (SOCi) on the basis of a current value of the battery, wherein the battery control device is configured to control charging/discharging of the battery on the basis of a third battery charging state based on the first battery charging state (SOCv) and the second battery charging state (SOCi), characterized in that the temperature includes a plurality of temperatures measured at plural positions of the battery, and the first SOC calculation unit is configured to switch - a first mode in which an SOC calculation of the battery is performed on the basis of a first temperature on a high temperature side of the battery and - a second mode in which the SOC calculation of the battery is performed on the basis of a second temperature on a low temperature side of the battery on the basis of a magnitude of the second temperature. a first state of charge, SOC, calculation unit which is configured to calculate a first battery charging state (SOCv) on the basis of a temperature and a voltage value of a battery; and a second SOC calculation unit which is configured to calculate a second battery charging state (SOCi) on the basis of a current value of the battery, wherein the battery control device is configured to control charging/discharging of the battery on the basis of a third battery charging state based on the first battery charging state (SOCv) and the second battery charging state (SOCi), characterized in that the temperature includes a plurality of temperatures measured at plural positions of the battery, and the first SOC calculation unit is configured to switch - a first mode in which an SOC calculation of the battery is performed on the basis of a first temperature on a high temperature side of the battery and - a second mode in which the SOC calculation of the battery is performed on the basis of a second temperature on a low temperature side of the battery on the basis of a magnitude of the second temperature. - a first mode in which an SOC calculation of the battery is performed on the basis of a first temperature on a high temperature side of the battery and - a second mode in which the SOC calculation of the battery is performed on the basis of a second temperature on a low temperature side of the battery on the basis of a magnitude of the second temperature.
An organic-inorganic composite, comprising: a polymer having a repeating unit represented by the general formula; and metal oxide particles of at least one type, wherein R1 and R2 independently denote a hydrogen atom or an alkyl group having 1 or more and 6 or less carbon atoms, and Q denotes an oxyethylene group, a thioethylene group, or a single bond, and wherein the concentration of the metal oxide particles is 1 percent by volume or more and 15 percent by volume or less of the composite. wherein R1 and R2 independently denote a hydrogen atom or an alkyl group having 1 or more and 6 or less carbon atoms, and Q denotes an oxyethylene group, a thioethylene group, or a single bond, and wherein the concentration of the metal oxide particles is 1 percent by volume or more and 15 percent by volume or less of the composite.
Method for separating particles from a liquid, comprising: - providing the liquid particles to a liquid channel with an inlet and an outlet; - providing a three-dimensional separating structure comprising node lines (28, 30) with one or more sets of transducers (12, 14) or combination sets of a transducer and a reflector that produce interfering waves (16, 22), wherein the one or more sets of transducers or combination sets of a transducer and a reflector are placed at an angle to the longitudinal direction of the liquid channel, such that liquid contacts or comes close to a node line, and placing the one or more sets of transducers or combination sets of a transducer and a reflector at an angle between 5° and 10°; and - capturing and/or attracting particles from the liquid in the node lines to separate the particles from the liquid. - providing the liquid particles to a liquid channel with an inlet and an outlet; - providing a three-dimensional separating structure comprising node lines (28, 30) with one or more sets of transducers (12, 14) or combination sets of a transducer and a reflector that produce interfering waves (16, 22), wherein the one or more sets of transducers or combination sets of a transducer and a reflector are placed at an angle to the longitudinal direction of the liquid channel, such that liquid contacts or comes close to a node line, and placing the one or more sets of transducers or combination sets of a transducer and a reflector at an angle between 5° and 10°; and - capturing and/or attracting particles from the liquid in the node lines to separate the particles from the liquid.
An emulsion polymer comprising, as polymerized units: a) at least one nonionic or anionic unsaturated monomer in an amount of at least 78 wt. % based on the overall weight of the polymer composition b) one or more strong acid monomer in an amount ranging from 0.01 wt. % to 2 wt. % based on the overall weight of the polymer composition; and c) at least one lower alkyl acrylate monomer in an amount ranging between 1 wt. % to 20 wt. % based on the overall weight of the polymer composition; wherein the strong acid monomer is selected as one from the group of a phosphorus-based acid monomer, a sulfur-based acid monomer, or a mixture thereof; the lower alkyl acrylate monomer is a C1-C3 alkyl acrylate; and the polymerized units are formed at a pH between 3 and 9. a) at least one nonionic or anionic unsaturated monomer in an amount of at least 78 wt. % based on the overall weight of the polymer composition b) one or more strong acid monomer in an amount ranging from 0.01 wt. % to 2 wt. % based on the overall weight of the polymer composition; and c) at least one lower alkyl acrylate monomer in an amount ranging between 1 wt. % to 20 wt. % based on the overall weight of the polymer composition; wherein the strong acid monomer is selected as one from the group of a phosphorus-based acid monomer, a sulfur-based acid monomer, or a mixture thereof; the lower alkyl acrylate monomer is a C1-C3 alkyl acrylate; and the polymerized units are formed at a pH between 3 and 9.
A protocol splitter, comprising: at least one first communication interface, configured for digital communication with a first node; at least one second communication interface, configured for digital communication with a second node; and at least one processor, which is coupled between the at least one first communication interface and the at least one second communication interface, characterized in that the at least one processor is configured, upon receiving a message from one of the first and second nodes that is directed to the other of the first and second nodes in accordance with a predefined communication protocol, to carry out the following actions: when the message contains a command defined by the protocol, to convey the command to the other of the first and second nodes; when the message contains status information defined by the protocol, to convey the status information to the other of the first and second nodes; when the message contains a response to a command defined by the protocol, to discard the response; and when the message contains a query defined by the protocol, to block the query from reaching the other of the first and second nodes. at least one first communication interface, configured for digital communication with a first node; at least one second communication interface, configured for digital communication with a second node; and at least one processor, which is coupled between the at least one first communication interface and the at least one second communication interface, characterized in that the at least one processor is configured, upon receiving a message from one of the first and second nodes that is directed to the other of the first and second nodes in accordance with a predefined communication protocol, to carry out the following actions: when the message contains a command defined by the protocol, to convey the command to the other of the first and second nodes; when the message contains status information defined by the protocol, to convey the status information to the other of the first and second nodes; when the message contains a response to a command defined by the protocol, to discard the response; and when the message contains a query defined by the protocol, to block the query from reaching the other of the first and second nodes. when the message contains a command defined by the protocol, to convey the command to the other of the first and second nodes; when the message contains status information defined by the protocol, to convey the status information to the other of the first and second nodes; when the message contains a response to a command defined by the protocol, to discard the response; and when the message contains a query defined by the protocol, to block the query from reaching the other of the first and second nodes.
A peptide particle comprising an amphiphilic peptide, the amphiphilic peptide comprising a hydrophobic peptidyl segment and a hydrophilic peptidyl segment, wherein the hydrophobic peptidyl segment consists essentially of an amino acid sequence of (Trp-Leu) m -(Trp) n or (Leu-Trp) p -(Leu) q, wherein each Trp is D-Trp or L-Trp and each Leu is D-Leu or L-Leu, m and p are independently an integer from 1 to 5, and n and q are independently 0 or 1, provided that when Trp is D-Trp then Leu is L-Leu, and when Trp is L-Trp then Leu is D-Leu, or vice versa; and wherein the hydrophilic peptidyl segment consists essentially of an amino acid sequence of (Lys) r, wherein r is an integer from 1 to 15, and wherein the peptide particle further comprises on its outer surface a ligand for binding to a target cell.
A method for automated determination of the relative position (x/y/z) between a first hole on a first microsystem component, which is provided with a first channel opening in the first hole, and at least one second hole on a second microsystem component, which is provided with a second channel opening in the second hole, wherein the two microsystem components (11, 12) are located in a liquid medium at least in the region (25, 26) of the holes (27, 29), comprising the steps: - under the supervision of a control device controlled by a computer, the first and second microsystem components (11, 12) are displaced relative to one another into different relative positions (x/y/z), - on one of the two microsystem components (12, 12) electrical signals are delivered at the hole by a signal electrode and are recorded on the other of the two microsystem components (11, 12) as measurement values at the hole by a measurement electrode, which measurement values depend on the relative position of the two microsystem components (11, 12) with respect to one another, - for different relative positions (x/y/z) between the two microsystem components (11, 12), measurement values are determined, from which in the control device the relative position (xn/yn/zn) is ascertained into which the two microsystem components (11, 12) are to be positioned with respect to one another in such a way that their holes (27, 29) are mutually aligned, such that the two holes (27, 29) lie opposite one another such that their middle axis extend in the other respective hole. - under the supervision of a control device controlled by a computer, the first and second microsystem components (11, 12) are displaced relative to one another into different relative positions (x/y/z), - on one of the two microsystem components (12, 12) electrical signals are delivered at the hole by a signal electrode and are recorded on the other of the two microsystem components (11, 12) as measurement values at the hole by a measurement electrode, which measurement values depend on the relative position of the two microsystem components (11, 12) with respect to one another, - for different relative positions (x/y/z) between the two microsystem components (11, 12), measurement values are determined, from which in the control device the relative position (xn/yn/zn) is ascertained into which the two microsystem components (11, 12) are to be positioned with respect to one another in such a way that their holes (27, 29) are mutually aligned, such that the two holes (27, 29) lie opposite one another such that their middle axis extend in the other respective hole.
A cultured dairy analog food product, comprising: particles of a filamentous fungus belonging to an order selected from the group consisting of Mucorales, Ustilaginales, Russulales, Polyporales, Agaricales, Pezizales, and Hypocreales, wherein the particles of the filamentous fungus comprise greater than about 40 dry wt. % protein content and less than about 8 dry wt. % RNA content; and a microbial food culture; wherein the particles of the filamentous fungus are derived from a filamentous fungal biomat produced by a surface fermentation process. particles of a filamentous fungus belonging to an order selected from the group consisting of Mucorales, Ustilaginales, Russulales, Polyporales, Agaricales, Pezizales, and Hypocreales, wherein the particles of the filamentous fungus comprise greater than about 40 dry wt. % protein content and less than about 8 dry wt. % RNA content; and a microbial food culture; wherein the particles of the filamentous fungus are derived from a filamentous fungal biomat produced by a surface fermentation process.