mhurhangee/ep-ind-claims huggingface dataset:
Method for configuring a radio connection between a mobile radio terminal and a mobile radio network, wherein the mobile radio network contains at least one first subnetwork, which is accessible with a credential of at least one first type, and at least one second subnetwork, which is accessible with a credential of at least one second type, wherein a first radio connection to the first subnetwork and a second radio connection to the second subnetwork have different radio transmission parameters, wherein an access request from the mobile radio terminal to the first or second subnetwork results in - the credential predetermined for the access request for the first or second subnetwork being ascertained, wherein - the type of the predetermined credential is ascertained, and - at least one radio transmission parameter is selected and activated (S4, S4') on the basis of the ascertained type of the predetermined credential, wherein the first credential is designed only for use in a first authentication protocol and the second credential is designed only for use in a second authentication protocol, the first and the second authentication protocol being different authentication protocols. - the credential predetermined for the access request for the first or second subnetwork being ascertained, wherein - the type of the predetermined credential is ascertained, and - at least one radio transmission parameter is selected and activated (S4, S4') on the basis of the ascertained type of the predetermined credential, wherein the first credential is designed only for use in a first authentication protocol and the second credential is designed only for use in a second authentication protocol, the first and the second authentication protocol being different authentication protocols.
A method comprising: transmitting (808, 1002, 1202, 1402) from communication equipment (104, 106, 108, 110, 200, 300) first signals within a licensed frequency band using a timing structure comprising frames (406, 420), subframes (408, 409, 410, 422, 423) and timeslots (412, 414, 426, 428); monitoring (802, 1004, 1204, 1402) an unlicensed frequency band, the unlicensed frequency band using the timing structure, wherein the monitoring is minimized to have a monitoring duration equal to a symbol time duration; multiplied by a factor determining (804, 1006, 1206), at least partially based on the monitoring, whether the unlicensed frequency band is in use; and if the unlicensed frequency band is determined to not be in use, then transmitting (810, 1010, 1210, 1412), immediately upon completion of the monitoring duration, from the communication equipment (104, 106, 108, 110, 200, 300), second signals within the unlicensed frequency band. transmitting (808, 1002, 1202, 1402) from communication equipment (104, 106, 108, 110, 200, 300) first signals within a licensed frequency band using a timing structure comprising frames (406, 420), subframes (408, 409, 410, 422, 423) and timeslots (412, 414, 426, 428); monitoring (802, 1004, 1204, 1402) an unlicensed frequency band, the unlicensed frequency band using the timing structure, wherein the monitoring is minimized to have a monitoring duration equal to a symbol time duration; multiplied by a factor determining (804, 1006, 1206), at least partially based on the monitoring, whether the unlicensed frequency band is in use; and if the unlicensed frequency band is determined to not be in use, then transmitting (810, 1010, 1210, 1412), immediately upon completion of the monitoring duration, from the communication equipment (104, 106, 108, 110, 200, 300), second signals within the unlicensed frequency band.
Lock box for an electro-mechanical lock with - a housing - comprising a first follower half that has a form-closed connection with a first handle for actuating the lock, with the first follower half having an actuating element for an unlocking linkage, - a second follower half which is connected in a form-closed way with a second handle for the operation of the lock, - restoring elements (9, 10) to bring the follower halves (2, 5) in rest position after actuation has been effected, - a coupling element which in its rest position (a) allows the first and second follower half to be freely movable relative to each other and in its working or operating position (b) causes the two follower halves (2, 5) to be connected with one another, - a motor which when activated brings the coupling element in operating position (b), - a control device acting on the motor after relevant control signals are received as well as - an energy supply, characterized in that the coupling element is provided with a pivotable articulated arm supported on the housing, said arm when in actuating position (b) engaging with recesses (12, 13) arranged in both follower halves (2, 5) so that when the second handle is actuated the lock can be opened via the second follower half. - a housing - comprising a first follower half that has a form-closed connection with a first handle for actuating the lock, with the first follower half having an actuating element for an unlocking linkage, - a second follower half which is connected in a form-closed way with a second handle for the operation of the lock, - restoring elements (9, 10) to bring the follower halves (2, 5) in rest position after actuation has been effected, - a coupling element which in its rest position (a) allows the first and second follower half to be freely movable relative to each other and in its working or operating position (b) causes the two follower halves (2, 5) to be connected with one another, - a motor which when activated brings the coupling element in operating position (b), - a control device acting on the motor after relevant control signals are received as well as - an energy supply,
A combustor assembly for a gas turbine, comprising: a combustion liner defining a first radial opening; an outer sleeve at least partially surrounding the combustion liner, the outer sleeve defining a second radial opening, wherein the second radial opening is aligned with the first radial opening; a mounting body having a jacket portion and a flange portion, wherein the jacket portion surrounds the first radial opening and extends radially outwardly from an outer surface of the combustion liner towards the outer sleeve, wherein the flange portion is at least partially disposed within the second radial opening; and an auxiliary component that extends radially within the jacket portion, the auxiliary component having a flange portion, wherein the flange portion of the auxiliary component is connected to the flange portion of the mounting body via a first fastener, and wherein the flange portion of the auxiliary component is connected to the outer sleeve via a second fastener; and wherein a gap is defined between a perimeter wall of the flange portion of the mounting body and the second radial opening of the outer sleeve. a combustion liner defining a first radial opening; an outer sleeve at least partially surrounding the combustion liner, the outer sleeve defining a second radial opening, wherein the second radial opening is aligned with the first radial opening; a mounting body having a jacket portion and a flange portion, wherein the jacket portion surrounds the first radial opening and extends radially outwardly from an outer surface of the combustion liner towards the outer sleeve, wherein the flange portion is at least partially disposed within the second radial opening; and an auxiliary component that extends radially within the jacket portion, the auxiliary component having a flange portion, wherein the flange portion of the auxiliary component is connected to the flange portion of the mounting body via a first fastener, and wherein the flange portion of the auxiliary component is connected to the outer sleeve via a second fastener; and wherein a gap is defined between a perimeter wall of the flange portion of the mounting body and the second radial opening of the outer sleeve.
Polymerization composition for manufacturing a hybrid material for plastic scintillation detection comprising: - monomers, oligomers or their mixtures intended to form at least one constituent polymer of a polymeric matrix; - a liquid fluorescent mixture comprising, in a molar concentration with respect to the total number of moles of primary fluorophore in the liquid fluorescent mixture; i) from 95.6 molar% to 99.1 molar% of a main primary fluorophore consisting of naphthalene; and ii) from 0.9 molar% to 4.4 molar% of an additional primary fluorophore, the centroid of the light absorption spectrum and of the fluorescence emission spectrum of which respectively have a wavelength comprised between 250 nm and 340 nm and comprised between 330 nm and 380 nm, the fluorescence decay constant of which is comprised between 1 ns and 10 ns and the fluorescence quantum yield in a nonpolar solvent of which is comprised between 0.2 and 1. - monomers, oligomers or their mixtures intended to form at least one constituent polymer of a polymeric matrix; - a liquid fluorescent mixture comprising, in a molar concentration with respect to the total number of moles of primary fluorophore in the liquid fluorescent mixture; i) from 95.6 molar% to 99.1 molar% of a main primary fluorophore consisting of naphthalene; and ii) from 0.9 molar% to 4.4 molar% of an additional primary fluorophore, the centroid of the light absorption spectrum and of the fluorescence emission spectrum of which respectively have a wavelength comprised between 250 nm and 340 nm and comprised between 330 nm and 380 nm, the fluorescence decay constant of which is comprised between 1 ns and 10 ns and the fluorescence quantum yield in a nonpolar solvent of which is comprised between 0.2 and 1. i) from 95.6 molar% to 99.1 molar% of a main primary fluorophore consisting of naphthalene; and ii) from 0.9 molar% to 4.4 molar% of an additional primary fluorophore, the centroid of the light absorption spectrum and of the fluorescence emission spectrum of which respectively have a wavelength comprised between 250 nm and 340 nm and comprised between 330 nm and 380 nm, the fluorescence decay constant of which is comprised between 1 ns and 10 ns and the fluorescence quantum yield in a nonpolar solvent of which is comprised between 0.2 and 1.
A method comprising: receiving, by a wireless device (106, 156), one or more messages comprising one or more configuration parameters for a cell, wherein the one or more configuration parameters indicate: transmission configuration indicator, TCI, states for decoding physical downlink shared channel, PDSCH; and a sounding reference signal, SRS, resource; receiving a medium access control control element, MAC CE, activating one or more TCI states of the TCI states; and characterized by in response to the one or more configuration parameters not indicating a spatial relation for the SRS resource and not indicating a control resource set in the cell, determining a spatial domain transmission filter based on a reference signal in an activated TCI state, wherein the activated TCI state has the lowest TCI state index among one or more TCI state indexes of the one or more TCI states; and transmitting, via the SRS resource, an SRS with the spatial domain transmission filter. receiving, by a wireless device (106, 156), one or more messages comprising one or more configuration parameters for a cell, wherein the one or more configuration parameters indicate: transmission configuration indicator, TCI, states for decoding physical downlink shared channel, PDSCH; and a sounding reference signal, SRS, resource; transmission configuration indicator, TCI, states for decoding physical downlink shared channel, PDSCH; and a sounding reference signal, SRS, resource; receiving a medium access control control element, MAC CE, activating one or more TCI states of the TCI states; and characterized by in response to the one or more configuration parameters not indicating a spatial relation for the SRS resource and not indicating a control resource set in the cell, determining a spatial domain transmission filter based on a reference signal in an activated TCI state, wherein the activated TCI state has the lowest TCI state index among one or more TCI state indexes of the one or more TCI states; and transmitting, via the SRS resource, an SRS with the spatial domain transmission filter.
A booklet processing mechanism configured to process a booklet having a spine, comprising: a backing plate; a spine guidance system that includes a spine guide that is configured to engage a booklet half of the booklet adjacent to the spine to bias the booklet half into engagement with the backing plate, the spine guide being moveable toward and away from the backing plate, the spine guide is biased in a direction toward the backing plate, and the spine guide is pivotable about a horizontal axis (C-C); wherein the backing plate includes an upper edge and a lower edge; and the spine guide is positioned adjacent to and faces the lower edge; and the backing plate is pivotable along the lower edge about a horizontal axis, and the backing plate is pivotable about a first vertical axis; and the spine guide is pivotable about a second vertical axis. a backing plate; a spine guidance system that includes a spine guide that is configured to engage a booklet half of the booklet adjacent to the spine to bias the booklet half into engagement with the backing plate, the spine guide being moveable toward and away from the backing plate, the spine guide is biased in a direction toward the backing plate, and the spine guide is pivotable about a horizontal axis (C-C); wherein the backing plate includes an upper edge and a lower edge; and the spine guide is positioned adjacent to and faces the lower edge; and the backing plate is pivotable along the lower edge about a horizontal axis, and the backing plate is pivotable about a first vertical axis; and the spine guide is pivotable about a second vertical axis.
A method, comprising: determining, by a processor (312 or 322) of an apparatus (310 or 320), whether specific information is comprised in a packet data convergence protocol, PDCP, protocol data unit, PDU of a plurality of PDUs in a queue; marking, by the processor (312 or 322), the PDCP PDU, in addition to a sequence number, SN, in an event that the specific information is comprised in the PDU; prioritizing, by the processor (312 or 322), the marked PDCP PDU by inserting the marked PDCP PDU at a head of line in the queue without changing a SN of an unmarked PDCP PDU; and delivering, by the processor (312 or 322), the marked PDCP PDU to a next protocol layer. determining, by a processor (312 or 322) of an apparatus (310 or 320), whether specific information is comprised in a packet data convergence protocol, PDCP, protocol data unit, PDU of a plurality of PDUs in a queue; marking, by the processor (312 or 322), the PDCP PDU, in addition to a sequence number, SN, in an event that the specific information is comprised in the PDU; prioritizing, by the processor (312 or 322), the marked PDCP PDU by inserting the marked PDCP PDU at a head of line in the queue without changing a SN of an unmarked PDCP PDU; and delivering, by the processor (312 or 322), the marked PDCP PDU to a next protocol layer.
A flip-flop circuit (106, 200, 400) comprising: a first inverter and a second inverter cross-coupled between a first node and a second node, the first and second nodes (216, 218) coupled on a signal path of the flip-flop circuit (106, 200, 400) to pass a data signal between an input terminal (206, 406) and an output terminal (208, 408); a capacitor configured to store a value of the data signal when the flip-flop circuit (106, 200, 400) is in a sleep state; and an indium-gallium zinc oxide, IGZO, transistor coupled between the capacitor and the first node, the IGZO transistor being configured to turn on when the flip-flop circuit (106, 200, 400) enters the sleep state to store the value of the data signal in the capacitor and then to turn off to retain the stored value in the capacitor. a first inverter and a second inverter cross-coupled between a first node and a second node, the first and second nodes (216, 218) coupled on a signal path of the flip-flop circuit (106, 200, 400) to pass a data signal between an input terminal (206, 406) and an output terminal (208, 408); a capacitor configured to store a value of the data signal when the flip-flop circuit (106, 200, 400) is in a sleep state; and an indium-gallium zinc oxide, IGZO, transistor coupled between the capacitor and the first node, the IGZO transistor being configured to turn on when the flip-flop circuit (106, 200, 400) enters the sleep state to store the value of the data signal in the capacitor and then to turn off to retain the stored value in the capacitor.
A cutting assembly for cutting a piece of meat, the cutting assembly comprising: a manipulator system and a support frame, the support frame being rotatably connected to the manipulator system; a first cutting tool adapted to cut the piece of meat along a first cutting plane; and a second cutting tool adapted to cut the piece of meat along a second cutting plane; the first and second cutting planes (13,15) defining an inner angle therebetween, characterized in that the first cutting tool is operatively connected to the support frame; the second cutting tool is operatively connected to the support frame; and the manipulator system is adapted to move the support frame to position the cutting tools (12, 14) on a first side of the piece of meat and move the support frame to position the cutting tools (12, 14) on a second side of the piece of meat, the first and second cutting tools (12, 14) being adapted to create a double-angled cut in a single operation to trim the piece of meat and define a corresponding bevel along one of said first and second sides of the piece of meat. a manipulator system and a support frame, the support frame being rotatably connected to the manipulator system; a first cutting tool adapted to cut the piece of meat along a first cutting plane; and a second cutting tool adapted to cut the piece of meat along a second cutting plane; the first and second cutting planes (13,15) defining an inner angle therebetween, characterized in that the first cutting tool is operatively connected to the support frame; the second cutting tool is operatively connected to the support frame; and the manipulator system is adapted to move the support frame to position the cutting tools (12, 14) on a first side of the piece of meat and move the support frame to position the cutting tools (12, 14) on a second side of the piece of meat, the first and second cutting tools (12, 14) being adapted to create a double-angled cut in a single operation to trim the piece of meat and define a corresponding bevel along one of said first and second sides of the piece of meat.
A method for controlling a cooking process of food, comprising steps of: - emitting a plurality of radio frequency signals into the food noninvasively at different points of time in the course of heating the food; the plurality of radio frequency signals have the same frequency; - receiving from the food a plurality of second radio frequency signals taken among the set defined by reflection signals and transmission signals, wherein the reflection signals is a part of the radio frequency signals that reflect from the food, and the transmission signals is a part of the radio frequency signals that transmit through the food; - obtaining a protein status, wherein the protein status is the extent of protein denaturation, in the food in the course of heating the food, based on dielectric properties of the food, the dielectric properties being determined based on the phases or amplitudes of the plurality of radio frequency signals and the plurality of second radio frequency signals; - determining a doneness level of the food based on the protein status; and - controlling the cooking process of the food based on the determined doneness level. - emitting a plurality of radio frequency signals into the food noninvasively at different points of time in the course of heating the food; the plurality of radio frequency signals have the same frequency; - receiving from the food a plurality of second radio frequency signals taken among the set defined by reflection signals and transmission signals, wherein the reflection signals is a part of the radio frequency signals that reflect from the food, and the transmission signals is a part of the radio frequency signals that transmit through the food; - obtaining a protein status, wherein the protein status is the extent of protein denaturation, in the food in the course of heating the food, based on dielectric properties of the food, the dielectric properties being determined based on the phases or amplitudes of the plurality of radio frequency signals and the plurality of second radio frequency signals; - determining a doneness level of the food based on the protein status; and - controlling the cooking process of the food based on the determined doneness level.
A method of constructing debranched copies of a circular nucleic acid molecule comprising at least one site that can be recognized by a sequence-specific nicking endonuclease, said method applied to one or more nucleic acid molecules, and said method comprising the steps of: (i) exposing said circular nucleic acid molecule to a reaction solution comprising nucleotides and strand-displacing polymerases to produce branched constructs comprising multiple copies of said circular nucleic acid molecule; and (ii) debranching said branched constructs, by comprising the steps of: (a) exposing to nicking endonucleases recognizing the site within said circular nucleic acid molecule, thereby producing nicks on said branched constructs; and (b) exposing to polymerases comprising 5'-3' exonuclease and/or flap nuclease activity to extend 3' ends at the nicks produced in (a), thereby producing debranched double-stranded constructs. (i) exposing said circular nucleic acid molecule to a reaction solution comprising nucleotides and strand-displacing polymerases to produce branched constructs comprising multiple copies of said circular nucleic acid molecule; and (ii) debranching said branched constructs, by comprising the steps of: (a) exposing to nicking endonucleases recognizing the site within said circular nucleic acid molecule, thereby producing nicks on said branched constructs; and (b) exposing to polymerases comprising 5'-3' exonuclease and/or flap nuclease activity to extend 3' ends at the nicks produced in (a), thereby producing debranched double-stranded constructs. (a) exposing to nicking endonucleases recognizing the site within said circular nucleic acid molecule, thereby producing nicks on said branched constructs; and (b) exposing to polymerases comprising 5'-3' exonuclease and/or flap nuclease activity to extend 3' ends at the nicks produced in (a), thereby producing debranched double-stranded constructs.