mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a protocol data unit, PDU, session service network element, comprising: receiving , by a control plane function network element from a mobility management device, a request for establishing a first PDU session, wherein the request for establishing the first PDU session comprises a first data network name, DNN; determining , by the control plane function network element, that a same user plane function network element needs to be selected for PDU sessions corresponding to the first DNN; and determining, by the control plane function network element, that a first user plane function network element is a user plane function network element for the first PDU session; characterized by : before the determining, by the control plane function network element, that a same user plane function network element needs to be selected for a PDU session corresponding to the first DNN, the method further comprises: determining, by the control plane function network element, that the first PDU session needs to be subsequently switched to an evolved packet core, EPC, network; wherein the determining that the first PDU session needs to be subsequently switched to an EPC network, comprises: determining, by the control plane function network element based on subscription data, that the first PDU session needs to be subsequently switched to the EPC network. receiving , by a control plane function network element from a mobility management device, a request for establishing a first PDU session, wherein the request for establishing the first PDU session comprises a first data network name, DNN; determining , by the control plane function network element, that a same user plane function network element needs to be selected for PDU sessions corresponding to the first DNN; and determining, by the control plane function network element, that a first user plane function network element is a user plane function network element for the first PDU session; characterized by : before the determining, by the control plane function network element, that a same user plane function network element needs to be selected for a PDU session corresponding to the first DNN, the method further comprises: determining, by the control plane function network element, that the first PDU session needs to be subsequently switched to an evolved packet core, EPC, network; wherein the determining that the first PDU session needs to be subsequently switched to an EPC network, comprises: determining, by the control plane function network element based on subscription data, that the first PDU session needs to be subsequently switched to the EPC network.
An impeller of a centrifugal headbox feed pump, the impeller having a shroud with a front face and a circumference , a plurality of long working vanes on the front face , and a plurality of shorter intermediate working vanes on the front face between the long working vanes , the shorter working vanes having a leading edge , a front edge and a foot part thereof, wherein the shorter intermediate working vanes have a foot length Lfs and a front edge length Les, the foot length of the shorter intermediate working vane being in the range Lfs = 1.2 * Les to Lfs = 3.0 * Les; the longer working vanes have a leading edge with an angle of inclination, the angles of inclination of the leading edges of the longer and shorter working vanes having a difference of 20 to 45 degrees; and the shroud comprising at least one of: (i) a plurality of openings for gas discharge arranged through the shroud within a circumference (Cls) formed by the foot parts of the leading edges of the shorter intermediate working vanes , and (ii) a plurality of balancing openings arranged through the shroud within a circumference (CII) formed by the foot parts of the leading edges of the longer working vanes . the shorter intermediate working vanes have a foot length Lfs and a front edge length Les, the foot length of the shorter intermediate working vane being in the range Lfs = 1.2 * Les to Lfs = 3.0 * Les; the longer working vanes have a leading edge with an angle of inclination, the angles of inclination of the leading edges of the longer and shorter working vanes having a difference of 20 to 45 degrees; and the shroud comprising at least one of: (i) a plurality of openings for gas discharge arranged through the shroud within a circumference (Cls) formed by the foot parts of the leading edges of the shorter intermediate working vanes , and (ii) a plurality of balancing openings arranged through the shroud within a circumference (CII) formed by the foot parts of the leading edges of the longer working vanes . (i) a plurality of openings for gas discharge arranged through the shroud within a circumference (Cls) formed by the foot parts of the leading edges of the shorter intermediate working vanes , and (ii) a plurality of balancing openings arranged through the shroud within a circumference (CII) formed by the foot parts of the leading edges of the longer working vanes .
Process for manufacturing an aromatic diether, comprising the reaction of a compound A comprising at least two halogenated aromatic groups with a compound B, B being an aromatic alkoxide, optionally in the presence of a compound C acting as reaction solvent, the molar proportion of compound B to compound A being at least 2:1 and the molar amount of compound C to compound A being, where appropriate, not more than 10:1. optionally in the presence of a compound C acting as reaction solvent, the molar proportion of compound B to compound A being at least 2:1 and the molar amount of compound C to compound A being, where appropriate, not more than 10:1.
An apparatus for stabilizing at least a portion of an imaging device that comprises an optical unit and a non-optical unit , said optical unit and non-optical unit constituting the entire imaging device , said apparatus comprising: a frame assembly for supporting the optical unit of the imaging device , without supporting the non-optical unit , wherein the frame assembly is configured to permit rotation of the optical unit about at least a first rotational axis and a second rotational axis , wherein the optical unit comprises at least a lens and a photosensor that is optically coupled to the lens , and wherein the optical unit and the non-optical unit are physically separated, but coupled by optical cabling, electrical wiring , or wireless communication; a motor assembly operably connected to the frame assembly , wherein the motor assembly is configured to drive the frame assembly so as to permit rotation of the optical unit about at least the first rotational axis or the second rotational axis ; wherein the frame assembly is further configured to permit the optical unit to rotate about a third rotational axis , wherein the third rotational axis corresponds to at least one of a pitch, roll, or yaw axis of the optical unit , and characterized in that the non-optical unit comprises a storage medium , and in that at least one of the rotational axes is neither orthogonally nor parallely disposed to at least one other of the rotational axes. a frame assembly for supporting the optical unit of the imaging device , without supporting the non-optical unit , wherein the frame assembly is configured to permit rotation of the optical unit about at least a first rotational axis and a second rotational axis , wherein the optical unit comprises at least a lens and a photosensor that is optically coupled to the lens , and wherein the optical unit and the non-optical unit are physically separated, but coupled by optical cabling, electrical wiring , or wireless communication; a motor assembly operably connected to the frame assembly , wherein the motor assembly is configured to drive the frame assembly so as to permit rotation of the optical unit about at least the first rotational axis or the second rotational axis ; wherein the frame assembly is further configured to permit the optical unit to rotate about a third rotational axis , wherein the third rotational axis corresponds to at least one of a pitch, roll, or yaw axis of the optical unit , and characterized in that the non-optical unit comprises a storage medium , and in that at least one of the rotational axes is neither orthogonally nor parallely disposed to at least one other of the rotational axes.
An operating method for a wirelessly communicating electronic device , the electronic device comprising: - an electronic control circuit comprising a radiofrequency transmitter configured to transmit a radiofrequency message according to a communication protocol and - a rechargeable electrical power storage means configured to supply electricity to the electronic device , characterized in that the operating method is implemented by the electronic control circuit and comprises the following steps: a) acquisition , by the electronic control circuit of the electronic device , of a radiofrequency frame representative of at least one data item intended to be transmitted by the radiofrequency transmitter in a radiofrequency message; b) determination , by the control circuit , of the amount of power available in the power storage means ; c) determination , by the control circuit , of the length of the radiofrequency message to be transmitted, the radiofrequency message comprising at least the acquired radiofrequency frame; d) determination of transmission parameters of the radiofrequency transmitter , the determination being carried out by the control circuit according to the determined values for the length of the message and the amount of power available in the power storage means; e) transmission of the radiofrequency message by the radiofrequency transmitter , using the determined transmission parameters. - an electronic control circuit comprising a radiofrequency transmitter configured to transmit a radiofrequency message according to a communication protocol and - a rechargeable electrical power storage means configured to supply electricity to the electronic device , a) acquisition , by the electronic control circuit of the electronic device , of a radiofrequency frame representative of at least one data item intended to be transmitted by the radiofrequency transmitter in a radiofrequency message; b) determination , by the control circuit , of the amount of power available in the power storage means ; c) determination , by the control circuit , of the length of the radiofrequency message to be transmitted, the radiofrequency message comprising at least the acquired radiofrequency frame; d) determination of transmission parameters of the radiofrequency transmitter , the determination being carried out by the control circuit according to the determined values for the length of the message and the amount of power available in the power storage means; e) transmission of the radiofrequency message by the radiofrequency transmitter , using the determined transmission parameters.
An apparatus for monitoring the evolution of the responsiveness of a polymer property with respect to a change in a stimulus during the synthesis of the polymer comprising: (a) a reactor for synthesizing the polymer; (b) an extraction stage that extracts a sample from the reactor; and (c) a device for monitoring the responsiveness of the polymer property of the sample to a change in stimulus during synthesis of the polymer. (a) a reactor for synthesizing the polymer; (b) an extraction stage that extracts a sample from the reactor; and (c) a device for monitoring the responsiveness of the polymer property of the sample to a change in stimulus during synthesis of the polymer.
A folding blade knife, comprising a handle defining a recess into which a blade , hinged in the vicinity of one of the ends of the handle, is capable of retracting, the handle integrating: - first means capable of locking the blade in folded position to avoid an untimely coming out of said blade from the handle ; - in the vicinity of the area where the blade is hinged to the handle, ▪ second means capable of unlocking said first locking means, said second means being operable by the user, ▪ third means capable of inducing the rotation of the blade around its hinge axis after it has been unlocked; characterized in that the handle also integrates additional means capable of generating the partial rotation of the blade out of the handle during the unlocking action between the folded position and an open or unfolded position. - first means capable of locking the blade in folded position to avoid an untimely coming out of said blade from the handle ; - in the vicinity of the area where the blade is hinged to the handle, ▪ second means capable of unlocking said first locking means, said second means being operable by the user, ▪ third means capable of inducing the rotation of the blade around its hinge axis after it has been unlocked; characterized in that the handle also integrates additional means capable of generating the partial rotation of the blade out of the handle during the unlocking action between the folded position and an open or unfolded position. ▪ second means capable of unlocking said first locking means, said second means being operable by the user, ▪ third means capable of inducing the rotation of the blade around its hinge axis after it has been unlocked;
A blind-mate capacitive coupling interconnection, comprising: a main module enclosure , comprising a main module outer surface ; a sub-module enclosure , comprising a sub-module outer surface ; a main module capacitive coupling surface provided on the main module outer surface of the main module enclosure ; a sub-module capacitive coupling surface provided on the sub-module outer surface of the sub-module enclosure , wherein the main module capacitive coupling surface and the sub-module capacitive coupling surface are each provided with a ground portion with an aperture ; a main module inner element provided within the aperture of the main module capacitive coupling surface and electrically isolated from the ground portion of the main module capacitive coupling surface ; a sub-module inner element provided within the aperture of the sub-module capacitive coupling surface and electrically isolated from the ground portion of the sub-module capacitive coupling surface ; and a mechanical fixture dimensioned to retain the sub-module capacitive coupling surface against the main module capacitive coupling surface . a main module enclosure , comprising a main module outer surface ; a sub-module enclosure , comprising a sub-module outer surface ; a main module capacitive coupling surface provided on the main module outer surface of the main module enclosure ; a sub-module capacitive coupling surface provided on the sub-module outer surface of the sub-module enclosure , wherein the main module capacitive coupling surface and the sub-module capacitive coupling surface are each provided with a ground portion with an aperture ; a main module inner element provided within the aperture of the main module capacitive coupling surface and electrically isolated from the ground portion of the main module capacitive coupling surface ; a sub-module inner element provided within the aperture of the sub-module capacitive coupling surface and electrically isolated from the ground portion of the sub-module capacitive coupling surface ; and a mechanical fixture dimensioned to retain the sub-module capacitive coupling surface against the main module capacitive coupling surface .
A method for estimating power consumption of an air conditioner, comprising: Acquiring (S101) types of n first air conditioners which are located in a same region with a second air conditioner, and operating parameters of each of the first air conditioners within a time period T, wherein the operating parameters include s times of powers P ix reported by each of the first air conditioners within the time period T and an operating time t ix corresponding to each power P ix ; i = 1, 2, ..., n; the n is a positive integer not less than 1; x = 1, 2, ..., s ; and the s is a positive integer not less than 1; determining (S102) power correction coefficients a; of the n first air conditioners according to the types of the n first air conditioners and the type of the second air conditioner; and calculating (S103) an estimated power consumption W1 of the second air conditioner within the time period T according to the operating parameters within the time period T and the power correction coefficient α i of each of the n first air conditioners. Acquiring (S101) types of n first air conditioners which are located in a same region with a second air conditioner, and operating parameters of each of the first air conditioners within a time period T, wherein the operating parameters include s times of powers P ix reported by each of the first air conditioners within the time period T and an operating time t ix corresponding to each power P ix ; i = 1, 2, ..., n; the n is a positive integer not less than 1; x = 1, 2, ..., s ; and the s is a positive integer not less than 1; determining (S102) power correction coefficients a; of the n first air conditioners according to the types of the n first air conditioners and the type of the second air conditioner; and calculating (S103) an estimated power consumption W1 of the second air conditioner within the time period T according to the operating parameters within the time period T and the power correction coefficient α i of each of the n first air conditioners.
Polyfunctional polymer comprising: - monomer units u1 carrying phosphonic acid -P(=O)(OH) 2 functional groups in acid form or, in all or part, in deprotonated form; - monomer units u2 carrying amine functional groups, optionally protonated in all or part; - monomer units u3 carrying alcohol -OH functional groups; where the amine functional groups of the monomer units u2 comprise primary amines -NH 2 optionally protonated in all or part in the ammonium NH 3 + form. - monomer units u1 carrying phosphonic acid -P(=O)(OH) 2 functional groups in acid form or, in all or part, in deprotonated form; - monomer units u2 carrying amine functional groups, optionally protonated in all or part; - monomer units u3 carrying alcohol -OH functional groups; where the amine functional groups of the monomer units u2 comprise primary amines -NH 2 optionally protonated in all or part in the ammonium NH 3 + form.
A barrel system for a timepiece, comprising: - a support arbor ; - a barrel comprising a drum closed by a barrel bottom , the barrel housing a drive spring, an outer end of the drive spring being connected to the drum ; - a barrel arbor in the form of a cannon situated in the barrel and surrounding the support arbor , an inner end of said drive spring being connected to the barrel arbor ; wherein said barrel system further comprises a rotation-transmission shaft distinct from the support arbor and the barrel arbor and rotationally secured to a first end with a toothed wheel so as to rotate therewith for transmitting a rotation movement from said drum to a timepiece-movement element, the rotation-transmission shaft being in the form of a cannon surrounding the support arbor and being surrounded by the barrel arbor , the rotation-transmission shaft further being arranged in rotational kinematic connection at another end with the drum by means of a non-circular part that interacts with a connecting element fixed to the barrel bottom , the connecting element comprising a non-circular opening with a shape complementary to the non-circular part . - a support arbor ; - a barrel comprising a drum closed by a barrel bottom , the barrel housing a drive spring, an outer end of the drive spring being connected to the drum ; - a barrel arbor in the form of a cannon situated in the barrel and surrounding the support arbor , an inner end of said drive spring being connected to the barrel arbor ; wherein said barrel system further comprises a rotation-transmission shaft distinct from the support arbor and the barrel arbor and rotationally secured to a first end with a toothed wheel so as to rotate therewith for transmitting a rotation movement from said drum to a timepiece-movement element, the rotation-transmission shaft being in the form of a cannon surrounding the support arbor and being surrounded by the barrel arbor , the rotation-transmission shaft further being arranged in rotational kinematic connection at another end with the drum by means of a non-circular part that interacts with a connecting element fixed to the barrel bottom , the connecting element comprising a non-circular opening with a shape complementary to the non-circular part .
A straddled vehicle comprising: a vehicle body frame including a head pipe and a down frame extending downward from the head pipe with regard to an up-and-down direction of the vehicle; a leg shield disposed behind the head pipe and the down frame with regard to a front-and-rear direction of the vehicle; and a loading hook disposed on the leg shield , wherein the leg shield includes an upper panel , and a lower panel disposed below the upper panel with regard to the up-and-down direction of the vehicle, the lower panel is separated from the upper panel , the lower panel includes a bottom panel portion , and an extending portion integrated with the bottom panel portion , the extending portion is extending from the bottom panel portion to an upper side than a lower end of the upper panel with regard to the up-and-down direction of the vehicle, and the loading hook is fixed to the vehicle body frame through the extending portion , characterized in that the upper panel includes a pocket portion , the pocket portion including a first opening , the first opening disposed lateral to the extending portion with regard to a right-and-left direction of the vehicle, the straddled vehicle further comprises an inner case disposed inside the upper panel , the inner case is disposed in the pocket portion , and the inner case is connected to the lower panel . a vehicle body frame including a head pipe and a down frame extending downward from the head pipe with regard to an up-and-down direction of the vehicle; a leg shield disposed behind the head pipe and the down frame with regard to a front-and-rear direction of the vehicle; and a loading hook disposed on the leg shield , wherein the leg shield includes an upper panel , and a lower panel disposed below the upper panel with regard to the up-and-down direction of the vehicle, the lower panel is separated from the upper panel , the lower panel includes a bottom panel portion , and an extending portion integrated with the bottom panel portion , the extending portion is extending from the bottom panel portion to an upper side than a lower end of the upper panel with regard to the up-and-down direction of the vehicle, and the loading hook is fixed to the vehicle body frame through the extending portion , characterized in that the upper panel includes a pocket portion , the pocket portion including a first opening , the first opening disposed lateral to the extending portion with regard to a right-and-left direction of the vehicle, the straddled vehicle further comprises an inner case disposed inside the upper panel , the inner case is disposed in the pocket portion , and the inner case is connected to the lower panel .