mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus of a high efficiency, HE, station, STA, the apparatus comprising: memory; and processing circuitry coupled to the memory, the processing circuitry configured to: decode a trigger frame from a HE access point, AP, the trigger frame comprising an indication of a random access, RA, resource unit, RU, RA-RU, available for STAs not associated with the HE AP, wherein the HE STA is not associated with the HE AP; configure the HE STA to transmit a HE trigger based, TB, physical layer, PHY, protocol data unit, PPDU, HE TB PPDU, to the HE AP in accordance with the RA-RU; and decode a multi-station block acknowledgement, BlockAck, frame from the HE AP, the multi-station BlockAck frame comprising a block acknowledgement, BA, information field, the BA information field comprising an association identification, AID, subfield, the AID subfield indicating a first predetermined value, the first predetermined value indicating an identifier for an unassociated STA, an acknowledgement, ACK, type subfield, the ACK type subfield indicating a second predetermined value, a traffic identification, TID, subfield, the TID subfield indicating a third predetermined value, and a subfield, the subfield indicating a media access control, MAC, address of the HE STA, the MAC address indicating the BA information field is for the HE STA and indicating that the multi-station BlockAck frame acknowledges the HE TB PPDU. decode a trigger frame from a HE access point, AP, the trigger frame comprising an indication of a random access, RA, resource unit, RU, RA-RU, available for STAs not associated with the HE AP, wherein the HE STA is not associated with the HE AP; configure the HE STA to transmit a HE trigger based, TB, physical layer, PHY, protocol data unit, PPDU, HE TB PPDU, to the HE AP in accordance with the RA-RU; and decode a multi-station block acknowledgement, BlockAck, frame from the HE AP, the multi-station BlockAck frame comprising a block acknowledgement, BA, information field, the BA information field comprising an association identification, AID, subfield, the AID subfield indicating a first predetermined value, the first predetermined value indicating an identifier for an unassociated STA, an acknowledgement, ACK, type subfield, the ACK type subfield indicating a second predetermined value, a traffic identification, TID, subfield, the TID subfield indicating a third predetermined value, and a subfield, the subfield indicating a media access control, MAC, address of the HE STA, the MAC address indicating the BA information field is for the HE STA and indicating that the multi-station BlockAck frame acknowledges the HE TB PPDU.
Method for treating solid and liquid wastes comprising materials containing organic carbon, such as plastic materials and biomasses, of the type which provides for a pyrolysis treatment, of said solid and liquid wastes, from which a synthesis gas (syngas) is obtained, comprising methane, and an inert residual, said pyrolysis being performed at the presence of an electromagnetic field whose frequency is either included between 2 and 3 kHz or higher harmonics thereof, the field intensity being equal to about 1 Tesla, and said magnetic field being adapted to move the pyrolysis reactions towards the formation of a percentage of methane in the syngas greater than 90%; the pyrolysis reactions starting inside a pyrolysis chamber and ending in a following settling chamber , placed immediately downstream of said pyrolysis chamber , said pyrolysis chamber and said settling chamber being under the influence of said electromagnetic field, wherein the composition of syngas at the pyrolysis chamber outlet is the following: CH 4 = 65%, CO = 10% and CO 2 = 10%, H 2 < 1%, O 2 < 0.15%, in the settling chamber the conversion process into CH 4 of H 2 , of CO, of overheated steam, of CO 2 , of C (carbon black) and of high boiling hydrocarbons ( tar ) starting, and the composition of syngas at the settling chamber outlet being as follows: CH 4 = 90÷95%, CO 2 + CO = 5÷10%, O 2 < 0.15%.
A system for automating packaging of varying shipment sets, comprising - a control unit for receiving information on the size and number of items forming a shipment set and for calculating dimensions of a custom sized cardboard box for packaging the shipment set, - a box forming station for forming said custom sized cardboard box having a bottom wall, four side walls and an open top, and - a packaging station for packaging the items forming the shipment set into said custom sized cardboard box , characterized by - a lid placing station for receiving information on a custom sized lid for closing a respective custom sized cardboard box from the control unit , the lid placing station being provided with an information acquiring device communicatively coupled with the control unit for reading information from a machine readable identifier for the custom sized cardboard box, for forming said custom sized lid, and for closing said custom sized cardboard box with the custom-sized lid, and - a box marking unit providing the machine readable identifier for the custom sized cardboard box , said identifier being permanently or temporarily attached to the box or to a device for transporting the custom sized cardboard box. - a control unit for receiving information on the size and number of items forming a shipment set and for calculating dimensions of a custom sized cardboard box for packaging the shipment set, - a box forming station for forming said custom sized cardboard box having a bottom wall, four side walls and an open top, and - a packaging station for packaging the items forming the shipment set into said custom sized cardboard box , - a lid placing station for receiving information on a custom sized lid for closing a respective custom sized cardboard box from the control unit , the lid placing station being provided with an information acquiring device communicatively coupled with the control unit for reading information from a machine readable identifier for the custom sized cardboard box, for forming said custom sized lid, and for closing said custom sized cardboard box with the custom-sized lid, and - a box marking unit providing the machine readable identifier for the custom sized cardboard box , said identifier being permanently or temporarily attached to the box or to a device for transporting the custom sized cardboard box.
An apparatus comprising: a gas turbine engine having an electrical machine that includes a stator portion and rotor portion configured to interact and produce electrical power when rotated, wherein the stator portion comprises conductive coils , and the electrical machine is integrated with a rotatable turbomachinery component of the gas turbine engine , the rotatable turbomachinery component having a plurality of blades and the gas turbine engine having a surface forming a flow path boundary radially outward of the plurality of blades , the rotor portion extending between blades of the rotatable turbomachinery component and located radially inward from the flow path boundary; and characterised in that the apparatus further comprises a moveable member capable of altering a magnetic field that interacts with the conductive coils by being urged from a first position to a second position along the rotor portion , wherein the moveable member is urged from the first position to the second position by moving in both a radial and an axial direction. a gas turbine engine having an electrical machine that includes a stator portion and rotor portion configured to interact and produce electrical power when rotated, wherein the stator portion comprises conductive coils , and the electrical machine is integrated with a rotatable turbomachinery component of the gas turbine engine , the rotatable turbomachinery component having a plurality of blades and the gas turbine engine having a surface forming a flow path boundary radially outward of the plurality of blades , the rotor portion extending between blades of the rotatable turbomachinery component and located radially inward from the flow path boundary; and characterised in that the apparatus further comprises a moveable member capable of altering a magnetic field that interacts with the conductive coils by being urged from a first position to a second position along the rotor portion , wherein the moveable member is urged from the first position to the second position by moving in both a radial and an axial direction.
A method for identifying subpopulations within a mixture of particles , comprising: measuring a characteristic of a first set of particles in the mixture of particles having two or more sub-populations, each sub-population being distinguishable by the characteristic; distinguishing the values of the measured characteristics for each of the sub-populations in the mixture ; assigning a critical range of values to each of the sub-populations based on the distinguishing; subsequent to the assigning a critical range of values , measuring the characteristics of a second set of particles in the mixture of particles ; subsequent to measuring the characteristics of a second set of particles in the mixture of particles , distinguishing the values of the measured characteristics for each of the sub-populations in the second set of particles ; updating the critical range of values based on the distinguishing of the values of the measured characteristics for each of the sub-populations in the second set of particles in real time; and assigning a sub-population classification to particles in the mixture based on the updated critical range of values . measuring a characteristic of a first set of particles in the mixture of particles having two or more sub-populations, each sub-population being distinguishable by the characteristic; distinguishing the values of the measured characteristics for each of the sub-populations in the mixture ; assigning a critical range of values to each of the sub-populations based on the distinguishing; subsequent to the assigning a critical range of values , measuring the characteristics of a second set of particles in the mixture of particles ; subsequent to measuring the characteristics of a second set of particles in the mixture of particles , distinguishing the values of the measured characteristics for each of the sub-populations in the second set of particles ; updating the critical range of values based on the distinguishing of the values of the measured characteristics for each of the sub-populations in the second set of particles in real time; and assigning a sub-population classification to particles in the mixture based on the updated critical range of values .
Method for the compressed air supply of a compressed air consumer having two fluidically separate, kinematically coupled working spaces , wherein each of the working spaces is assigned a valve arrangement which can be independently controlled and can be configured between a blocking position, a first functional position for a fluidically communicating connection to a fluid source and a second functional position for a fluidically communicating connection to a fluid sink and wherein each of the two valve arrangements is configured individually depending on a predefinable movement task for the compressed air consumer and depending exclusively on at least two pressure values from the following group: supply pressure, first working space pressure, second working space pressure, discharge pressure, for a provision of a predefinable progression for a fluid mass flow or for a provision of a predefinable progression for a fluid pressure in the respective working space or for a provision of a predefinable progression of a valve cross-section, wherein an aeration of a first working space is effected with a predefinable progression for a first fluid pressure, characterized in that a ventilation of a second working space is effected with a predefinable progression for a second fluid mass flow or a predefinable progression for a valve position of the valve arrangement assigned to the second working space .
An oligonucleotide comprising at least one phosphorodithioate internucleoside linkage of formula (IA) or (IB) wherein one of the two oxygen atoms is linked to the 3'carbon atom of an adjacent nucleoside (A 1 ) and the other one is linked to the 5'carbon atom of another adjacent nucleoside (A 2 ), wherein at least one of the two nucleosides (A 1 ) and (A 2 ) is a LNA nucleoside and wherein in (IA) R is hydrogen or a phosphate protecting group, and in (IB) M+ is a cation, such as a metal cation, such as an alkali metal cation, such as a Na+ or K+ cation; or M+ is an ammonium cation; wherein the oligonucleotide comprises between 1 and 5 internucleoside linkages of formula (IA) or (IB) and wherein the further internucleoside linkages are all phosphorothioate internucleoside linkages. wherein one of the two oxygen atoms is linked to the 3'carbon atom of an adjacent nucleoside (A 1 ) and the other one is linked to the 5'carbon atom of another adjacent nucleoside (A 2 ), wherein at least one of the two nucleosides (A 1 ) and (A 2 ) is a LNA nucleoside and wherein in (IA) R is hydrogen or a phosphate protecting group, and in (IB) M+ is a cation, such as a metal cation, such as an alkali metal cation, such as a Na+ or K+ cation; or M+ is an ammonium cation; wherein the oligonucleotide comprises between 1 and 5 internucleoside linkages of formula (IA) or (IB) and wherein the further internucleoside linkages are all phosphorothioate internucleoside linkages.
A method for forming composite materials having integrated electronics, the method comprising: positioning at least one electronic component on a lay-up surface of a lay-up system; positioning a composite material on the lay-up surface , wherein the composite material comprises resin and fibers ; causing a flow of the resin between the lay-up surface and the fibers ; and curing the resin to form a cured resin , wherein the electronic component and the fibers are located in the cured resin , wherein positioning the at least one electronic component comprises depositing electronically conductive ink on the lay-up surface . positioning at least one electronic component on a lay-up surface of a lay-up system; positioning a composite material on the lay-up surface , wherein the composite material comprises resin and fibers ; causing a flow of the resin between the lay-up surface and the fibers ; and curing the resin to form a cured resin , wherein the electronic component and the fibers are located in the cured resin , wherein positioning the at least one electronic component comprises depositing electronically conductive ink on the lay-up surface .
An enclosure system comprising: a stator enclosure defining a first enclosure opening; an adapter comprising a first entry port , said adapter defining a center cavity having a first volume; a conduit enclosure coupled to one or more of said adapter and said stator enclosure, said conduit enclosure comprising: a base member comprising at least one side wall , a rear wall coupled to said side wall , and an interior cavity , said rear wall defining a second entry port ; a terminal connection block coupled to said base member and comprising at least one terminal ; and at least one electrical lead extending from said stator enclosure through said first enclosure opening, through said first entry port , through said center cavity , through said second entry port , and into said interior cavity , said at least one electrical lead occupying a portion of said first volume and leaving a remaining volume; and sealing compound coupled with said adapter such that substantially all of said remaining volume is occupied; characterized by insulating paper attached to one of said adapter and said conduit enclosure , the insulating paper comprising at least one electrical lead hole defined therein, said insulating paper oriented such that said at least one electrical lead hole is substantially concentrically aligned with said second entry port , wherein said at least one electrical lead extends through said at least one electrical lead hole . a stator enclosure defining a first enclosure opening; an adapter comprising a first entry port , said adapter defining a center cavity having a first volume; a conduit enclosure coupled to one or more of said adapter and said stator enclosure, said conduit enclosure comprising: a base member comprising at least one side wall , a rear wall coupled to said side wall , and an interior cavity , said rear wall defining a second entry port ; a terminal connection block coupled to said base member and comprising at least one terminal ; and a base member comprising at least one side wall , a rear wall coupled to said side wall , and an interior cavity , said rear wall defining a second entry port ; a terminal connection block coupled to said base member and comprising at least one terminal ; and at least one electrical lead extending from said stator enclosure through said first enclosure opening, through said first entry port , through said center cavity , through said second entry port , and into said interior cavity , said at least one electrical lead occupying a portion of said first volume and leaving a remaining volume; and sealing compound coupled with said adapter such that substantially all of said remaining volume is occupied; characterized by insulating paper attached to one of said adapter and said conduit enclosure , the insulating paper comprising at least one electrical lead hole defined therein, said insulating paper oriented such that said at least one electrical lead hole is substantially concentrically aligned with said second entry port , wherein said at least one electrical lead extends through said at least one electrical lead hole .
A biometric authentication device comprising a structure extractor including a first extractor and a second extractor ; the first extractor configured to extract a finger crotch from a palm image for comparison; the second extractor configured to extract a finger root wrinkle from the palm image for comparison, the finger root wrinkle being a third joint from a fingertip; a calculator configured to calculate a first dispersion with respect to the positions of all points of the finger crotch extracted by the first extractor and a second dispersion with respect to the positions of all points of the finger root wrinkle extracted by the second extractor; wherein the structure extractor is configured to change a usage ratio between position information of the finger crotch extracted by the first extractor and position information of the wrinkle extracted by the second extractor in accordance with the first dispersion and the second dispersion in order to calculate a structure of a palm region; a position adjuster configured to calculate a position gap between the structure of the palm region for comparison and a structure of an enrollment palm region and to adjust at least one of a position of a biometric feature for comparison of the palm image for comparison and a position of an enrollment biometric feature of an enrolled palm image so that the position gap is reduced, by using position information of the finger crotch extracted by the first extractor and position information of the wrinkle extracted by the second extractor; a comparer configured to compare the biometric feature for comparison and the enrollment biometric feature after position adjustment of the position adjuster.
A method performed in a network access equipment comprising: sending control information to a user equipment, UE, comprising a receiver, the control information operable when executed to configure the UE to control the receiver to have discontinuous reception, DRX, active time; sending control information to the UE to configure the user equipment to determine uplink sounding reference signal, SRS, sub-frames based on an SRS repetition period; and maintaining an SRS resource configuration for the user equipment when not in said DRX active time and while not receiving an uplink SRS from the UE, wherein the SRS resource configuration is associated with a time-frequency resource. sending control information to a user equipment, UE, comprising a receiver, the control information operable when executed to configure the UE to control the receiver to have discontinuous reception, DRX, active time; sending control information to the UE to configure the user equipment to determine uplink sounding reference signal, SRS, sub-frames based on an SRS repetition period; and maintaining an SRS resource configuration for the user equipment when not in said DRX active time and while not receiving an uplink SRS from the UE, wherein the SRS resource configuration is associated with a time-frequency resource.
A system for purifying two consecutive batches of a reaction mixture comprising an 18 F-labelled compound wherein said system comprises: (i) a reversed-phase solid phase extraction (SPE) column having a first end and a second end , wherein each of said first end and said second end is selectively fluidly connected to a common pathway ; and, (ii) first and second normal-phase SPE columns, each having a first end selectively fluidly connected to said common pathway and a second end fluidly connected to a product collection vial . (i) a reversed-phase solid phase extraction (SPE) column having a first end and a second end , wherein each of said first end and said second end is selectively fluidly connected to a common pathway ; and, (ii) first and second normal-phase SPE columns, each having a first end selectively fluidly connected to said common pathway and a second end fluidly connected to a product collection vial .
An intravascular stent (100; 200), comprising wave shaped rings and connecting rods constituting a framework having openings and at least one radiopaque structure (103a; 201; 301), wherein each said radiopaque structure (103a; 201; 301) comprises fixed bodies (106, 107, 108, 109; 205, 206, 207) and radiopaque markers (105; 208; 307) filled in said fixed bodies (106, 107, 108, 109; 205, 206, 207), and said fixed bodies(106, 107, 108, 109; 205, 206, 207) connected with said framework, and said fixed bodies(106, 107, 108, 109; 205, 206, 207) at least partially disposed in said openings, and an envelope enclosed area (110; 209; 308) of all the radiopaque markers (105; 208; 307) in each said radiopaque structure (103a; 201; 301) is less than or equal to 2 mm 2 , and a sum of effective areas of all the radiopaque markers (105; 208; 307) in each said radiopaque structure (103a; 201; 301) is greater than or equal to 0.15 mm 2 , and a ratio of said sum of effective areas to said envelope enclosed area (110; 209; 308) is greater than or equal to 1:5.