mhurhangee/patent-ind-claim-en huggingface dataset:
A method of receiving channel status information, CSI, in a radio communication system, by an Node B, comprising: determining whether carrier aggregation, CA, with a primary cell supporting the TDD mode and a secondary cell supporting the FDD mode is configured with respect to a user equipment, UE ; selecting (1202; 1402) a second CSI transmission period for periodic CSI reporting of the secondary cell from a first set of CSI transmission periods, in response to determination that CA with the primary cell supporting the TDD mode and the secondary cell supporting the FDD mode is configured with respect to the UE , wherein the first set of CSI transmission periods comprises being associated with a time duplex division, TDD, mode and a second set of CSI transmission periods comprises being associated with a frequency duplex division, FDD, mode; receiving (1206; 1406), from the UE, a periodic CSI report of the secondary cell in an uplink subframe of the primary cell determined according to the second CSI transmission period on a physical uplink shared channel, PUSCH, of the primary cell, in case that the UE has a PUSCH transmission for the primary cell in the uplink subframe being determined according to the second CSI transmission period; and receiving (1206; 1408), from the UE, the periodic CSI report of the secondary cell on a physical uplink control channel, PUCCH, in the uplink subframe of the primary cell, in case that the UE does not have a PUSCH transmission in the uplink subframe of the primary cell. determining whether carrier aggregation, CA, with a primary cell supporting the TDD mode and a secondary cell supporting the FDD mode is configured with respect to a user equipment, UE ; selecting (1202; 1402) a second CSI transmission period for periodic CSI reporting of the secondary cell from a first set of CSI transmission periods, in response to determination that CA with the primary cell supporting the TDD mode and the secondary cell supporting the FDD mode is configured with respect to the UE , wherein the first set of CSI transmission periods comprises being associated with a time duplex division, TDD, mode and a second set of CSI transmission periods comprises being associated with a frequency duplex division, FDD, mode; receiving (1206; 1406), from the UE, a periodic CSI report of the secondary cell in an uplink subframe of the primary cell determined according to the second CSI transmission period on a physical uplink shared channel, PUSCH, of the primary cell, in case that the UE has a PUSCH transmission for the primary cell in the uplink subframe being determined according to the second CSI transmission period; and receiving (1206; 1408), from the UE, the periodic CSI report of the secondary cell on a physical uplink control channel, PUCCH, in the uplink subframe of the primary cell, in case that the UE does not have a PUSCH transmission in the uplink subframe of the primary cell.
A system for monitoring the state of at least one blister card that includes a forming film , a lidding film , and a first plurality of tablets arranged in a first arrangement, each tablet being contained in a different reservoir of a plurality of reservoirs defined by the forming film and the lidding film, wherein the first plurality of tablets includes a first tablet contained in a first reservoir of the plurality thereof, and wherein the system comprises: a housing that is operative for locating the blister card in a first position; a first detection module comprising a first plurality of sensors that includes a first sensor (606-1), wherein the first sensor is operative for providing a first electrical signal that is based on the physical state of a first dispensing region (212-1) of the lidding film; and an electronics module that is operative for providing a first output signal based on the first electrical signal; wherein the system is characterized by the first sensor being a first capacitive sensor (606-1) comprising a first capacitor (C2) having a first capacitance that is based on the physical state of the first dispensing region, and wherein the first electrical signal is based on the first capacitance. a housing that is operative for locating the blister card in a first position; a first detection module comprising a first plurality of sensors that includes a first sensor (606-1), wherein the first sensor is operative for providing a first electrical signal that is based on the physical state of a first dispensing region (212-1) of the lidding film; and an electronics module that is operative for providing a first output signal based on the first electrical signal; wherein the system is characterized by the first sensor being a first capacitive sensor (606-1) comprising a first capacitor (C2) having a first capacitance that is based on the physical state of the first dispensing region, and wherein the first electrical signal is based on the first capacitance.
An electric resistance welding device that uses, as an object component to be electric-resistance-welded to a steel plate component , a shaft-shaped component including a shaft section , a flange formed integrally with the shaft section , and a welding projection formed on a flange surface opposite to the shaft section , the shaft section being inserted into a receiving hole (46; 117) formed in a pressing electrode for electric resistance welding, a welding current being allowed to flow from the shaft-shaped component to the steel plate component with the pressing electrode being advanced and the welding projection being pressed against the steel plate component , the electric resistance welding device being characterized in that pressing force accumulating means for accumulating pressing force of the welding projection against the steel plate component by pressing displacement of a pressing member is disposed between the pressing member to which the pressing displacement is transmitted and a pressed member that transmits the pressing force to the shaft-shaped component in the receiving hole (46; 117), and that detecting means is provided, the detecting means being activated when an amount of the pressing displacement of the pressing force accumulating means reaches a predetermined value and the pressing force of the welding projection against the steel plate component is set to a predetermined value, the welding current being applied in response to a detection signal from the detecting means .
A method in a terminal device for a wireless communication network, the terminal device being configurable with a plurality of transmission time intervals, the method comprising: determining the presence of data to transmit, the data being associated with a first logical channel; determining a maximum transmission time interval value associated with the first logical channel; wherein the maximum transmission time interval value is configured via signalling between the radio access network and the wireless terminal, and responsive to a determination that the maximum transmission time interval associated with the logical channel is less than a first transmission time interval, transmitting a scheduling request message to the wireless communication network, the scheduling request message being configured according to a second transmission time interval of the plurality of transmission time intervals, wherein the second transmission time interval is shorter than the first transmission time interval . determining the presence of data to transmit, the data being associated with a first logical channel; determining a maximum transmission time interval value associated with the first logical channel; wherein the maximum transmission time interval value is configured via signalling between the radio access network and the wireless terminal, and responsive to a determination that the maximum transmission time interval associated with the logical channel is less than a first transmission time interval, transmitting a scheduling request message to the wireless communication network, the scheduling request message being configured according to a second transmission time interval of the plurality of transmission time intervals, wherein the second transmission time interval is shorter than the first transmission time interval .
A multivalent fluorescent probe comprising a fluorochrome molecule of formula (A) wherein X and Y are independently O, S, Se or CR 15 R 16 ; n is 0 to 3, R 1 to R 11 , and R 13 to R 16 are hydrogen, alkyl having from 1-20 carbons, alkoxy having from 1-20 carbons, trifluoromethyl, halogen, methylthio, sulfonyl, carbonyl, hydroxy, amino and thiol; wherein said fluorochrome molecule is chemically linked to four targeting moieties L1, L2, L3 and L4 which are each a linker of 10-50 linear atoms selected from carbon, nitrogen, oxygen, phosphorus and sulfur, that are further substituted by hydrogen, alkyl having from 1-20 carbons, alkoxy having from 1-20 carbons, trifluoromethyl, halogen, methylthio, sulfonyl, carbonyl, hydroxyl, amino thiols; wherein each linker L1, L2, L3 and L4 is further substituted by a ligand that binds to a receptor. wherein X and Y are independently O, S, Se or CR 15 R 16 ; n is 0 to 3, R 1 to R 11 , and R 13 to R 16 are hydrogen, alkyl having from 1-20 carbons, alkoxy having from 1-20 carbons, trifluoromethyl, halogen, methylthio, sulfonyl, carbonyl, hydroxy, amino and thiol; wherein said fluorochrome molecule is chemically linked to four targeting moieties L1, L2, L3 and L4 which are each a linker of 10-50 linear atoms selected from carbon, nitrogen, oxygen, phosphorus and sulfur, that are further substituted by hydrogen, alkyl having from 1-20 carbons, alkoxy having from 1-20 carbons, trifluoromethyl, halogen, methylthio, sulfonyl, carbonyl, hydroxyl, amino thiols; wherein each linker L1, L2, L3 and L4 is further substituted by a ligand that binds to a receptor.
An injection molded article comprising a thin-walled body portion formed from a polymer-based resin derived from cellulose, wherein the thin-walled body portion comprises: i. a gate position; ii. a last fill position; iii. a flow length to wall thickness ratio greater than or equal to 100, wherein the flow length is measured from the gate position to the last fill position; and iv. a wall thickness less than or equal to about 2 mm; and wherein the polymer-based resin is a cellulose ester composition that comprises an impact modifier in the range from 1 to 30% based on the weight of the cellulose ester composition, the impact modifier being selected from thermoplastic elastomers and core-shell impact modifiers wherein the polymer based resin has an HDT of at least 95°C, the HDT being measured according to ASTM D648 as measured at 1.82 MPa using a 3.2 mm thick bar that was subjected to 70°C for 4 hours, a bio-derived content of at least 20 wt%, the bio-derived content being measured according to ASTM method D6866-16 and a spiral flow length of at least 3.0 cm, when the polymer-based resin is molded with a spiral flow mold with the conditions of a barrel temperature of 238°C, a melt temperature of 246°C, a molding pressure of 13.8 MPa, a mold thickness of 0.8 mm, and a mold width of 12.7 mm. i. a gate position; ii. a last fill position; iii. a flow length to wall thickness ratio greater than or equal to 100, wherein the flow length is measured from the gate position to the last fill position; and iv. a wall thickness less than or equal to about 2 mm; and wherein the polymer-based resin is a cellulose ester composition that comprises an impact modifier in the range from 1 to 30% based on the weight of the cellulose ester composition, the impact modifier being selected from thermoplastic elastomers and core-shell impact modifiers wherein the polymer based resin has an HDT of at least 95°C, the HDT being measured according to ASTM D648 as measured at 1.82 MPa using a 3.2 mm thick bar that was subjected to 70°C for 4 hours, a bio-derived content of at least 20 wt%, the bio-derived content being measured according to ASTM method D6866-16 and a spiral flow length of at least 3.0 cm, when the polymer-based resin is molded with a spiral flow mold with the conditions of a barrel temperature of 238°C, a melt temperature of 246°C, a molding pressure of 13.8 MPa, a mold thickness of 0.8 mm, and a mold width of 12.7 mm.
Device for removing leaves from root crops, such as carrots, comprising a pair of sets of bars and bearing blocks , the bars of each set being rotatably mounted with their ends to respective bearing blocks of the set for simultaneous rotation, characterized in that each bar is rotational symmetrical with respect to rotation over 180° around a symmetry axis (S) and is releasably fixed in the device , such that when fixed in the device in a first position, each bar is releasable, is turnable over 180° around the symmetry axis (S) for placing it in a second position and is fixable in this second position in the device .
An imaging catheter assembly , comprising: a tip member comprising a tubular body that includes a closed distal end , an opened proximal end , and a proximal curved top outer wall extending from the proximal opened end and tapering into a distal flat top outer wall towards the closed distal end; a flexible elongate member comprising a distal portion coupled to the open proximal end of the tip member; and an imaging component mounted within the tip member, wherein the tubular body includes an inner cavity extending from the proximal opened end towards the distal closed end, wherein the inner cavity includes a proximal curved top inner wall opposite the proximal curved top outer wall, a distal flat top inner wall opposite the distal flat top outer wall, a first guiding member extending along a first inner sidewall of the inner cavity and a second guiding member extending along a second inner sidewall of the inner cavity, wherein the first inner sidewall is radially opposite the second inner sidewall; wherein the imaging component comprises a planar element that includes an ultrasound transducer array, and wherein the imaging component is positioned within the tip member guided by the first guiding member and the second guiding member. a tip member comprising a tubular body that includes a closed distal end , an opened proximal end , and a proximal curved top outer wall extending from the proximal opened end and tapering into a distal flat top outer wall towards the closed distal end; a flexible elongate member comprising a distal portion coupled to the open proximal end of the tip member; and an imaging component mounted within the tip member, wherein the tubular body includes an inner cavity extending from the proximal opened end towards the distal closed end, wherein the inner cavity includes a proximal curved top inner wall opposite the proximal curved top outer wall, a distal flat top inner wall opposite the distal flat top outer wall, a first guiding member extending along a first inner sidewall of the inner cavity and a second guiding member extending along a second inner sidewall of the inner cavity, wherein the first inner sidewall is radially opposite the second inner sidewall; wherein the imaging component comprises a planar element that includes an ultrasound transducer array, and wherein the imaging component is positioned within the tip member guided by the first guiding member and the second guiding member.
An irradiation device comprising: a fluid treatment chamber configured to receive a biological fluid container , the fluid treatment chamber having opposing first and second sides ; at least one light source disposed adjacent to at least one of the first and second sides of the fluid treatment chamber ; and an indicator ; characterized by an overflow reservoir in fluid communication with the fluid treatment chamber to receive fluid leaking from the biological fluid container ; a non-contact optical sensor disposed adjacent to the overflow reservoir and configured to generate a signal according to leaked fluid in the overflow reservoir ; and a controller coupled to the at least one light source , the non-contact sensor and the indicator , the controller configured to activate the indicator upon receipt of the signal from the sensor and to deactivate the at least one light source subsequent to receipt of the signal from the sensor . a fluid treatment chamber configured to receive a biological fluid container , the fluid treatment chamber having opposing first and second sides ; at least one light source disposed adjacent to at least one of the first and second sides of the fluid treatment chamber ; and an indicator ; characterized by an overflow reservoir in fluid communication with the fluid treatment chamber to receive fluid leaking from the biological fluid container ; a non-contact optical sensor disposed adjacent to the overflow reservoir and configured to generate a signal according to leaked fluid in the overflow reservoir ; and a controller coupled to the at least one light source , the non-contact sensor and the indicator , the controller configured to activate the indicator upon receipt of the signal from the sensor and to deactivate the at least one light source subsequent to receipt of the signal from the sensor .
A method for evaluating channel information of a database, DB, said DB channel information being associated to a target area and being representative of expected characteristics of a wireless communication channel in said target area to be provided to one or more communication devices, wherein said method comprises: - (S10) obtaining, by a processing circuit , all or part of the DB channel information from the database; - (S11) obtaining, by the processing circuit , observed channel information representative of characteristics of the wireless communication channel experienced by a first communication device (20-1) in the target area; - (S12) computing, by the processing circuit , a reliability indicator for the DB channel information for the target area, by comparing the DB channel information and the observed channel information and determining a timing information for said reliability indicator. - (S10) obtaining, by a processing circuit , all or part of the DB channel information from the database; - (S11) obtaining, by the processing circuit , observed channel information representative of characteristics of the wireless communication channel experienced by a first communication device (20-1) in the target area; - (S12) computing, by the processing circuit , a reliability indicator for the DB channel information for the target area, by comparing the DB channel information and the observed channel information and determining a timing information for said reliability indicator.
Combined facility for cryogenic separation and liquefaction of methane and carbon dioxide in a biogas stream, comprising: - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a separator vessel V05 for receiving the mixture from the exchanger E01 and for recovering an overhead vapour and a CO 2 -enriched liquid , - a means M4 for cooling the overhead vapour, - a distillation column K01 supplied with the cooled overhead vapour and making it possible to produce methane at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane produced at the top of the column, - a means M2 for separating the liquefied methane into two portions: a "reflux" portion and a "product" portion , - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched stream from the means M3 and for recovering an overhead vapour and liquid CO 2 , with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined. - a means M1 for mixing the biogas with a recycle gas R, - a compressor for compressing the mixture to the distillation pressure, - an exchanger E01 for cooling the compressed mixture, - a separator vessel V05 for receiving the mixture from the exchanger E01 and for recovering an overhead vapour and a CO 2 -enriched liquid , - a means M4 for cooling the overhead vapour, - a distillation column K01 supplied with the cooled overhead vapour and making it possible to produce methane at the top of the column and a CO 2 -enriched liquid at the bottom of the column, - an exchanger E02 for liquefying the methane produced at the top of the column, - a means M2 for separating the liquefied methane into two portions: a "reflux" portion and a "product" portion , - a means M3 for expanding and heating the CO 2 -enriched liquid recovered at the bottom of the column and for recovering the cold from the CO 2 -enriched liquid, and - a separator vessel V01 for receiving the CO 2 -enriched stream from the means M3 and for recovering an overhead vapour and liquid CO 2 , with - the means M1 such that the recycle gas R corresponds to the overhead vapour recovered at the outlet of the separator vessel V01, and - the exchanger E01 and the means M3 being combined.
An apparatus comprising: a ground plane ; an array of antennas , wherein the array comprises antennas arranged in parallel rows and at least three parallel columns ; for one or more columns of the antennas in the array, there is an aligned arrangement of coupling elements comprising coupling elements between the antennas in the respective column, wherein the coupling elements are separate from the antennas and are electrically floating; wherein the coupling elements are closer to adjacent antennas in a column of the array, in a column direction, for a column towards a center of the array of antennas than for a column towards a periphery of the array of antennas; and wherein each of the antennas in the array of antennas comprises a radiator and feeds for a first polarization and a second polarization orthogonal to the first polarization. a ground plane ; an array of antennas , wherein the array comprises antennas arranged in parallel rows and at least three parallel columns ; for one or more columns of the antennas in the array, there is an aligned arrangement of coupling elements comprising coupling elements between the antennas in the respective column, wherein the coupling elements are separate from the antennas and are electrically floating; wherein the coupling elements are closer to adjacent antennas in a column of the array, in a column direction, for a column towards a center of the array of antennas than for a column towards a periphery of the array of antennas; and wherein each of the antennas in the array of antennas comprises a radiator and feeds for a first polarization and a second polarization orthogonal to the first polarization.
A gas turbine having a compressor , a plenum connected to the compressor , a combustion chamber with a combustor having a front plate and burners connected to the front plate , and at least a damper connected to the front plate and housed in the plenum , the front plate and the burners being at least partially housed in the plenum , the damper having a chamber tailored to the space available between adjacent burners ; characterized in that the damper is a Helmholtz damper and comprises the chamber and a neck , the neck being connected between the chamber and the front plate .