mhurhangee/ep-ind-claims huggingface dataset:
Method for providing information in a cellular wireless communication system, wherein each cell in said cellular wireless communication system is served by a base station, and said cellular wireless communication system employs a procedure in which a mobile station suffering from a radio link failure while being connected to a cell may attempt to re-establish a connection in another cell, comprising the steps of: - detecting a radio link failure for said mobile station while connected to a first cell; - requesting a radio resource control re-establishment for said mobile station in a second cell after said radio link failure; and - providing a single radio link failure indication message to said first cell, characterised in that said single radio link failure indication message is generated by a cell in which a radio resource control establishment takes place and said re-establishment is unsuccessful, wherein said single radio link failure indication message comprises a radio link failure report produced by said mobile station, wherein said second cell indicates to said mobile station whether said mobile station shall attempt to deliver said radio link failure report at radio resource control establishment. - detecting a radio link failure for said mobile station while connected to a first cell; - requesting a radio resource control re-establishment for said mobile station in a second cell after said radio link failure; and - providing a single radio link failure indication message to said first cell, characterised in that said single radio link failure indication message is generated by a cell in which a radio resource control establishment takes place and said re-establishment is unsuccessful, wherein said single radio link failure indication message comprises a radio link failure report produced by said mobile station, wherein said second cell indicates to said mobile station whether said mobile station shall attempt to deliver said radio link failure report at radio resource control establishment.
Method for monitoring a line system, wherein a liquid medium is guided in at least one line of the line system, a) wherein in each case the current pressure of the liquid medium in the at least one line and in each case the associated current flow in the at least one line are sensed at sensing times, b) wherein in each case the sensed current pressure and in each case the sensed current flow are received by a computing unit, c) wherein the computing unit calculates a respective theoretical flow of the liquid medium in the at least one line from the respective sensed current pressure taking into account a prespecified flow function describing a physical relationship between the theoretical flow of the liquid medium and the respective current pressure of the liquid medium, d) wherein the computing unit determines a respective individual degree of clogging on the basis of the respective current and the respective theoretical flow, e) wherein the computing unit calculates an interval within which a degree of clogging of the line system lies with a probability to be defined on the basis of a number of determined individual degrees of clogging using stochastic methods and f) wherein the line system is monitored by using the size of the calculated interval and/or the position of the calculated interval with respect to first limits for the degree of clogging that are defined beforehand as an indication of the presence of a fault in the line system. a) wherein in each case the current pressure of the liquid medium in the at least one line and in each case the associated current flow in the at least one line are sensed at sensing times, b) wherein in each case the sensed current pressure and in each case the sensed current flow are received by a computing unit, c) wherein the computing unit calculates a respective theoretical flow of the liquid medium in the at least one line from the respective sensed current pressure taking into account a prespecified flow function describing a physical relationship between the theoretical flow of the liquid medium and the respective current pressure of the liquid medium, d) wherein the computing unit determines a respective individual degree of clogging on the basis of the respective current and the respective theoretical flow, e) wherein the computing unit calculates an interval within which a degree of clogging of the line system lies with a probability to be defined on the basis of a number of determined individual degrees of clogging using stochastic methods and f) wherein the line system is monitored by using the size of the calculated interval and/or the position of the calculated interval with respect to first limits for the degree of clogging that are defined beforehand as an indication of the presence of a fault in the line system.
A leader apparatus capable of performing data transmission by multicasting to a plurality of partner user apparatuses (UE#1, UE#2, UE#N), comprising: a request reception unit configured to receive a join request from a partner user apparatus (UE#N+1) that desires multicast data reception from the leader apparatus (UE#0), the join request also serving as a layer 2 state variable request; a match control unit (101, 104) configured to perform control for matching values of a state variable of layer 2 in the radio communication between the leader apparatus (UE#0) and the partner user apparatus (UE#N+1) that transmits the join request in response to receiving the join request by the request reception unit, characterized in that: the leader apparatus is a leader user apparatus, the data transmission by multicasting to a plurality of partner user apparatuses is performed by device-to-device radio communication, and the match control unit (101, 104) is configured to periodically instruct a partner user apparatus (UE#1) that is performing multicast data reception to reset the state of layer 2 irrespective of presence or absence of the join request. a request reception unit configured to receive a join request from a partner user apparatus (UE#N+1) that desires multicast data reception from the leader apparatus (UE#0), the join request also serving as a layer 2 state variable request; a match control unit (101, 104) configured to perform control for matching values of a state variable of layer 2 in the radio communication between the leader apparatus (UE#0) and the partner user apparatus (UE#N+1) that transmits the join request in response to receiving the join request by the request reception unit, characterized in that: the leader apparatus is a leader user apparatus, the data transmission by multicasting to a plurality of partner user apparatuses is performed by device-to-device radio communication, and the match control unit (101, 104) is configured to periodically instruct a partner user apparatus (UE#1) that is performing multicast data reception to reset the state of layer 2 irrespective of presence or absence of the join request. the leader apparatus is a leader user apparatus, the data transmission by multicasting to a plurality of partner user apparatuses is performed by device-to-device radio communication, and the match control unit (101, 104) is configured to periodically instruct a partner user apparatus (UE#1) that is performing multicast data reception to reset the state of layer 2 irrespective of presence or absence of the join request.
A recombinant antigen-binding protein that binds a human IgG1-Fc domain, a human IgG2-Fc domain, or a human IgG4-Fc domain, wherein: (a) the recombinant antigen-binding protein is specific for a wild type CH3 domain containing a histidine residue at position 95 according to the IMGT exon numbering system and a tyrosine residue at position 96 according to the IMGT exon numbering system (Fc) over a substituted CH3 domain containing an arginine residue at position 95 according to the IMGT exon numbering system and a phenylalanine residue at position 96 according to the IMGT exon numbering system (Fc*); and (b) the recombinant antigen-binding protein comprises: (i) a ScFv which comprises an HCVR having the amino acid sequence of SEQ ID NO:15 and an LCVR having the amino acid sequence of SEQ ID NO:16; and (ii) a membrane anchor. (a) the recombinant antigen-binding protein is specific for a wild type CH3 domain containing a histidine residue at position 95 according to the IMGT exon numbering system and a tyrosine residue at position 96 according to the IMGT exon numbering system (Fc) over a substituted CH3 domain containing an arginine residue at position 95 according to the IMGT exon numbering system and a phenylalanine residue at position 96 according to the IMGT exon numbering system (Fc*); and (b) the recombinant antigen-binding protein comprises: (i) a ScFv which comprises an HCVR having the amino acid sequence of SEQ ID NO:15 and an LCVR having the amino acid sequence of SEQ ID NO:16; and (ii) a membrane anchor.
Method for detecting a decalibration of at least one surroundings sensor for capturing the surroundings of a vehicle, wherein a plurality of objects in the surroundings are detected by means of the surroundings sensor, characterized in that angular velocities (dα/dt) of the detected objects are ascertained while the vehicle is traveling, wherein clusters of a number of the objects are ascertained in relation to the angular velocities (dα/dt) by means of histogram evaluation, wherein if a cluster is identified away from an angular velocity (dα/dt) of zero, it is concluded that the surroundings sensor has been decalibrated, which is caused by a deviation of the alignment of the surroundings sensor from a normal position with respect to a vehicle axis of the vehicle.
A tubular fragmentation tip (2,3), which is attached to an intraocular surgery device configured to apply ultrasonic vibration, comprising: a cylindrical support portion (21,31) configured to be mounted on the intraocular surgery device; and a cylindrical tip body (22,32) provided at a distal end of the support portion (21,31), said cylindrical support portion (21,31) and said cylindrical tip body (22,32) together defining a flow channel extending from an opening at the distal end of the tip body (22,32) through the tip body (22,32) and the support portion (21,31), so that the tip body (22,32) is in communication with an internal space of the support portion (21,31), wherein the tip body (22,32) has a cross sectional shape having a length in a first direction larger than a length in a second direction that is orthogonal to the first direction, wherein the tip body (22, 32) has a first surface and a second surface which oppose each other extending along the first direction, and a third surface and a fourth surface which oppose each other extending along the second direction, wherein arcuate recessed portions (3210, 3220) are formed on the first surface and the second surface, wherein arcuate protruding portions (3230, 3240) are formed on the third surface and the fourth surface, and wherein when vibration is applied to the support portion (21,31) the tip body (22,32) rotates back and forth about an axis of the tip body (22,32) that passes through its center in the first direction and the second direction. a cylindrical support portion (21,31) configured to be mounted on the intraocular surgery device; and a cylindrical tip body (22,32) provided at a distal end of the support portion (21,31), said cylindrical support portion (21,31) and said cylindrical tip body (22,32) together defining a flow channel extending from an opening at the distal end of the tip body (22,32) through the tip body (22,32) and the support portion (21,31), so that the tip body (22,32) is in communication with an internal space of the support portion (21,31), wherein the tip body (22,32) has a cross sectional shape having a length in a first direction larger than a length in a second direction that is orthogonal to the first direction, wherein the tip body (22, 32) has a first surface and a second surface which oppose each other extending along the first direction, and a third surface and a fourth surface which oppose each other extending along the second direction, wherein arcuate recessed portions (3210, 3220) are formed on the first surface and the second surface, wherein arcuate protruding portions (3230, 3240) are formed on the third surface and the fourth surface, and wherein when vibration is applied to the support portion (21,31) the tip body (22,32) rotates back and forth about an axis of the tip body (22,32) that passes through its center in the first direction and the second direction.
A flame retardant thermoplastic polyurethane composition comprising: (a) a thermoplastic polycarbonate polyurethane resin; (b) an aromatic phosphate; (c) a phosphate salt; wherein component (a), the thermoplastic polyurethane resin, component (b), the aromatic phosphate, and component (c), the phosphate salt, are each essentially halogen-free; and wherein component (b), the aromatic phosphate, comprises one or more compounds represented by formula, formula, formula, or combinations thereof: wherein: each R 1 is independently a hydrocarbon group or a hydrocarbonoxy group; R 3 is a hydrocarbylene group; each R 2 is independently a hydrocarbon group or a hydrocarbonoxy group; and m and n are integers from 1 to 30. (a) a thermoplastic polycarbonate polyurethane resin; (b) an aromatic phosphate; (c) a phosphate salt;
A composition comprising: a) methyl-tetra-hydrofolate and/or a pharmaceutically acceptable salt thereof in an amount comprised between 100 and 800 μg of folic acid equivalents, preferably 150 to 600 μg, more preferably 200 to 400 μg; b) methylcobalamin and/or the pharmaceutically acceptable salts thereof in an amount comprised between 0.5 and 10 μg, preferably 1.5 to 5 μg, more preferably 2 to 3 μg of cyanocobalamin equivalents; c) at least two vitamins B selected among vitamin B2, nicotinamide, vitamin B3 and vitamin B6 and/or the pharmaceutically acceptable salts in an amount comprised between 0.4 μg and 40 mg, preferably 1.5 μg to 32 mg, more preferably 2 μg to 18 mg; d) a betaine and/or the pharmaceutically acceptable salts in an amount comprised between 100 and 2000 mg, preferably 150 to 1000 mg, more preferably 200 to 400 mg; e) a chelated zinc compound in an amount comprised between 5 and 50 mg, preferably 6 to 20 mg, more preferably 8 to 12 mg of zinc equivalents; f) L-cystine in an amount comprised between 100 and 2000 mg, preferably 150 to 1000, more preferably 200 to 400 mg. a) methyl-tetra-hydrofolate and/or a pharmaceutically acceptable salt thereof in an amount comprised between 100 and 800 μg of folic acid equivalents, preferably 150 to 600 μg, more preferably 200 to 400 μg; b) methylcobalamin and/or the pharmaceutically acceptable salts thereof in an amount comprised between 0.5 and 10 μg, preferably 1.5 to 5 μg, more preferably 2 to 3 μg of cyanocobalamin equivalents; c) at least two vitamins B selected among vitamin B2, nicotinamide, vitamin B3 and vitamin B6 and/or the pharmaceutically acceptable salts in an amount comprised between 0.4 μg and 40 mg, preferably 1.5 μg to 32 mg, more preferably 2 μg to 18 mg; d) a betaine and/or the pharmaceutically acceptable salts in an amount comprised between 100 and 2000 mg, preferably 150 to 1000 mg, more preferably 200 to 400 mg; e) a chelated zinc compound in an amount comprised between 5 and 50 mg, preferably 6 to 20 mg, more preferably 8 to 12 mg of zinc equivalents; f) L-cystine in an amount comprised between 100 and 2000 mg, preferably 150 to 1000, more preferably 200 to 400 mg.
A cleaning method for a workpiece with foreign matter adhered, the cleaning method comprising: transmitting a particle beam to the workpiece with foreign matter adhered to scan a structure of the workpiece; comparing the structure of the workpiece and the foreign matter obtained by the scanning with a 3D model of the workpiece; identifying cleaning points (33m1, 33m2) of the workpiece with the foreign matter adhered based on a result of the comparison; substituting a true value to a cleaning variable for the identified cleaning points (33m1, 33m2); generating a cleaning liquid jet from a main nozzle; skipping a first cleaning section (33f3) and jumping to a next second cleaning section (33f3) if the cleaning variable corresponding to the first cleaning section (33f3) has a false value; and executing the first cleaning section (33f3) to direct the main nozzle toward the cleaning points if the cleaning variable has a true value; skipping a first retraction section (33f4) and jumping to a next second retraction section (33f4) if all the cleaning variables of the cleaning points associated with a first retraction section (33f4) have false values; and executing, otherwise, the first retraction section (33f4). transmitting a particle beam to the workpiece with foreign matter adhered to scan a structure of the workpiece; comparing the structure of the workpiece and the foreign matter obtained by the scanning with a 3D model of the workpiece; identifying cleaning points (33m1, 33m2) of the workpiece with the foreign matter adhered based on a result of the comparison; substituting a true value to a cleaning variable for the identified cleaning points (33m1, 33m2); generating a cleaning liquid jet from a main nozzle; skipping a first cleaning section (33f3) and jumping to a next second cleaning section (33f3) if the cleaning variable corresponding to the first cleaning section (33f3) has a false value; and executing the first cleaning section (33f3) to direct the main nozzle toward the cleaning points if the cleaning variable has a true value; skipping a first retraction section (33f4) and jumping to a next second retraction section (33f4) if all the cleaning variables of the cleaning points associated with a first retraction section (33f4) have false values; and executing, otherwise, the first retraction section (33f4).
A cable tray and at least one side wall bracket secured to the cable tray for retaining cables routed on the cable tray, the cable tray and side wall bracket combination comprising: a cable tray having a plurality of transverse wires including a top portion and downwardly extending side walls, a plurality of longitudinal wires, wherein the longitudinal wires are underneath the top portion, side longitudinal wires and bottom longitudinal wires; at least one side wall bracket having angled legs defined by a U-shaped inside leg portion and a hook that leads to an outside leg portion; and wherein the inside leg portion of each angled leg engages a first surface of the side longitudinal wires and the bottom longitudinal wires and the outside leg portion of each angled leg engages a second surface opposite the first surface of the side longitudinal wires and the bottom longitudinal wires to secure the at least one side wall bracket to the cable tray. a cable tray having a plurality of transverse wires including a top portion and downwardly extending side walls, a plurality of longitudinal wires, wherein the longitudinal wires are underneath the top portion, side longitudinal wires and bottom longitudinal wires; at least one side wall bracket having angled legs defined by a U-shaped inside leg portion and a hook that leads to an outside leg portion; and wherein the inside leg portion of each angled leg engages a first surface of the side longitudinal wires and the bottom longitudinal wires and the outside leg portion of each angled leg engages a second surface opposite the first surface of the side longitudinal wires and the bottom longitudinal wires to secure the at least one side wall bracket to the cable tray.
A method for adapting coefficients of an equalizer in a transmitter that communicates over a channel with a receiver, comprising: determining, in a receiver equalization adaptation block in said receiver, if a gain value for an amplifier in said receiver is within a limit of said amplifier, said limit being a lower limit or an upper limit; preventing that one or more upward adjustment requests to said equalizer coefficients are transmitted from the receiver to the transmitter through a back channel if said gain value does not satisfy said lower limit of said amplifier; and preventing that one or more downward adjustment requests to said equalizer coefficients are transmitted from the receiver to the transmitter through a back channel if said gain value does not satisfy said upper limit of said amplifier. determining, in a receiver equalization adaptation block in said receiver, if a gain value for an amplifier in said receiver is within a limit of said amplifier, said limit being a lower limit or an upper limit; preventing that one or more upward adjustment requests to said equalizer coefficients are transmitted from the receiver to the transmitter through a back channel if said gain value does not satisfy said lower limit of said amplifier; and preventing that one or more downward adjustment requests to said equalizer coefficients are transmitted from the receiver to the transmitter through a back channel if said gain value does not satisfy said upper limit of said amplifier.
Printing system comprising: - an endless metal transport belt for transporting sheets in a transport direction, wherein the metal transport belt comprises multiple through holes through which an underpressure or overpressure may be applied on the sheets, wherein the metal transport belt comprises a straight section and a curved section downstream from the straight section, where the metal transport belt curves and changes direction, and - a sheet separation system for separating the sheets from the metal transport belt, wherein the sheets are separated from the metal transport belt by applying a local overpressure on an underside of the sheets in an overpressure zone, characterized by further comprising - a sheet separation guide which guides the separated sheets away from the metal transport belt, wherein the sheet separation guide is positioned at the curved section, wherein the sheet separation system comprises a stationary sliding surface positioned under the metal transport belt and upstream of the sheet separation guide, wherein the metal transport belt slides over the stationary sliding surface, wherein the stationary sliding surface comprises a number of blow holes which define the overpressure zone, the blow holes being connected to a source of pressurized air, wherein the blow holes are configured to apply a local overpressure in the overpressure zone through the metal transport belt onto the underside of the sheets to separate a front end of the sheets from the metal transport belt, and wherein the overpressure zone is formed in an overpressure curved sliding surface being a curved part of the stationary sliding surface, wherein the overpressure zone has an upstream end and a downstream end which are determined by the location of the blow holes, and wherein the sheet separation guide directly adjoins the overpressure zone at the downstream end thereof. - an endless metal transport belt for transporting sheets in a transport direction, wherein the metal transport belt comprises multiple through holes through which an underpressure or overpressure may be applied on the sheets, wherein the metal transport belt comprises a straight section and a curved section downstream from the straight section, where the metal transport belt curves and changes direction, and - a sheet separation system for separating the sheets from the metal transport belt, wherein the sheets are separated from the metal transport belt by applying a local overpressure on an underside of the sheets in an overpressure zone, characterized by further comprising - a sheet separation guide which guides the separated sheets away from the metal transport belt, wherein the sheet separation guide is positioned at the curved section, wherein the sheet separation system comprises a stationary sliding surface positioned under the metal transport belt and upstream of the sheet separation guide,