mhurhangee/ep-ind-claims huggingface dataset:
A method for reporting a beam measurement report by a terminal, comprising: obtaining a beam measurement result that includes channel measurement parameters corresponding to n reference signals RSs included in a set of target RSs and channel measurement parameters corresponding to m other RSs except for the set of target RSs, the set of target RSs corresponding to a set of target transmission configuration indication TCI states including n TCI states indicated by a network access equipment to the terminal, where n and m are positive integers; wherein transmitting the beam measurement report to the network access equipment when the beam measurement result satisfies a preset condition, the beam measurement report being configured to trigger the network access equipment to update the set of target TCI states; and receiving TCI state update information from the network access equipment, the TCI state update information being configured to indicate TCI states included in the updated set of target TCI states, wherein the preset condition is received from the network access equipment and comprises a channel measurement parameter corresponding to at least one other RS in the m other RSs is greater than a second threshold; or, a channel measurement parameter corresponding to an RS in the set of target RSs is smaller than a third threshold, and a channel measurement parameter corresponding to other RS in the m other RSs is greater than a fourth threshold. obtaining a beam measurement result that includes channel measurement parameters corresponding to n reference signals RSs included in a set of target RSs and channel measurement parameters corresponding to m other RSs except for the set of target RSs, the set of target RSs corresponding to a set of target transmission configuration indication TCI states including n TCI states indicated by a network access equipment to the terminal, where n and m are positive integers; wherein transmitting the beam measurement report to the network access equipment when the beam measurement result satisfies a preset condition, the beam measurement report being configured to trigger the network access equipment to update the set of target TCI states; and receiving TCI state update information from the network access equipment, the TCI state update information being configured to indicate TCI states included in the updated set of target TCI states, wherein the preset condition is received from the network access equipment and comprises a channel measurement parameter corresponding to at least one other RS in the m other RSs is greater than a second threshold; or, a channel measurement parameter corresponding to an RS in the set of target RSs is smaller than a third threshold, and a channel measurement parameter corresponding to other RS in the m other RSs is greater than a fourth threshold.
A production method for an acrylonitrile based fiber bundle comprising first extruding a spinning dope solution through a plurality of discharge holes in a spinneret, then allowing the spinning dope solution to run downward into a coagulation bath liquid stored in a coagulation bath to form coagulated fibers, turning the coagulated fibers upward on a direction changing guide part located in the coagulation bath liquid below the spinneret, and pulling them out of the coagulation bath liquid, wherein the requirement 1) given below is met: 1) the axis direction of the direction changing guide part is perpendicular to both the traveling direction (Da) of the coagulated fibers moving from the surface of the coagulation bath liquid toward the direction changing guide part and the take-up direction (Db) of the coagulated fibers moving from the direction changing guide part and exiting out of the coagulation bath liquid, characterized in that also the requirements 2) and 3) given below are met: 2) the traveling region of the coagulated fibers ranging from the surface of the coagulating bath liquid to the direction changing guide part includes two or more fiber-existing regions containing coagulated fibers that exist continuously in the traveling direction (Da) of the coagulated fibers, and at least one fiber-free region free of coagulated fibers, which are continuously absent in the traveling direction (Da) of the coagulated fibers, wherein each fiber-free region is located between two fiber-existing regions, and 3) for at least one of the fiber-free regions, the width thereof measured at the surface of the coagulation bath liquid in the axis direction of the direction changing guide part is at least four times the shortest distance between discharge holes in the spinneret. 1) the axis direction of the direction changing guide part is perpendicular to both the traveling direction (Da) of the coagulated fibers moving from the surface of the coagulation bath liquid toward the direction changing guide part and the take-up direction (Db) of the coagulated fibers moving from the direction changing guide part and exiting out of the coagulation bath liquid, 2) the traveling region of the coagulated fibers ranging from the surface of the coagulating bath liquid to the direction changing guide part includes two or more fiber-existing regions containing coagulated fibers that exist continuously in the traveling direction (Da) of the coagulated fibers, and at least one fiber-free region free of coagulated fibers, which are continuously absent in the traveling direction (Da) of the coagulated fibers, wherein each fiber-free region is located between two fiber-existing regions, and 3) for at least one of the fiber-free regions, the width thereof measured at the surface of the coagulation bath liquid in the axis direction of the direction changing guide part is at least four times the shortest distance between discharge holes in the spinneret.
A monitoring device of two-channel bus data in a Real-time Automation Protocols for Industrial Ethernet, RAPIEnet, network system, the monitoring device characterized by: a first channel unit configured to transmit and receive a data piece with a network bus, to convert the received data piece to a Management Independent Interface, MII, data piece, and to transmit and receive the converted MII data piece; a second channel unit configured to transmit and receive a data piece with the network bus, to convert the received data piece to an MII data piece, and to transmit and receive the converted MII data piece; a CPU configured to recognize a carrier detection signal, Cyclical Redundancy Check, CRC of the MII data received from the first channel unit and the second channel unit, and to transmit and receive the MII data; and a monitoring unit configured to perform a data communication with the CPU, and to monitor a data piece by each channel from the MII data received from the CPU, wherein the first and the second channel units convert the data piece by a unit of a 16-bit word and transmit the converted data piece, wherein an MII conversion unit of the first channel unit shifts an 8-bit data piece and store a value thereof in upper 8 bits to convert, and an MII conversion unit of the second channel unit shifts an 8-bit data piece and store a value thereof in lower 8 bits to convert. a first channel unit configured to transmit and receive a data piece with a network bus, to convert the received data piece to a Management Independent Interface, MII, data piece, and to transmit and receive the converted MII data piece; a second channel unit configured to transmit and receive a data piece with the network bus, to convert the received data piece to an MII data piece, and to transmit and receive the converted MII data piece; a CPU configured to recognize a carrier detection signal, Cyclical Redundancy Check, CRC of the MII data received from the first channel unit and the second channel unit, and to transmit and receive the MII data; and a monitoring unit configured to perform a data communication with the CPU, and to monitor a data piece by each channel from the MII data received from the CPU, wherein the first and the second channel units convert the data piece by a unit of a 16-bit word and transmit the converted data piece, wherein an MII conversion unit of the first channel unit shifts an 8-bit data piece and store a value thereof in upper 8 bits to convert, and an MII conversion unit of the second channel unit shifts an 8-bit data piece and store a value thereof in lower 8 bits to convert.
Electroacoustic transducer through which sound can be converted into an electrical signal, comprising a transducer element, a passive electrode which is located on the front side of the transducer element and which can be used as an electromagnetic shield, and an active electrode located on the rear side of the transducer element, whereby the active electrode is located between the passive electrode and a rear shield (17, 18) and the passive electrode is conductively connected to the rear shield (17, 18), whereby the passive electrode together with the rear shield (17, 18) forms a shield enclosing the active electrode on all sides and the electroacoustic transducer comprises an electronic unit and the electronic unit is also located in the all-round shield and no additional shield is provided for.
A cluster composition which comprises a suspension of clusters in an aqueous biocompatible medium, where said clusters have a diameter in the range 1 to 10 μm, and a circularity < 0.9 and comprise: (i) a first component which comprises a gas microbubble and first stabilizer to stabilize said microbubble, wherein the gas of the gas microbubble comprises sulphur hexafluoride, a C 3-6 perfluorocarbon, nitrogen, air or mixtures thereof; and (ii) a second component which comprises a microdroplet comprising an oil phase and a second stabilizer to stabilize said microdroplet, where the oil comprises a diffusible component capable of diffusing into said gas microbubble so as to at least transiently increase the size thereof, and wherein the oil phase comprises a partly or fully halogenated hydrocarbon or a mixture thereof, where said second component further comprises a first therapeutic agent; where the microbubbles and microdroplets of said first and second components have opposite surface charges and form said clusters via attractive electrostatic interactions, where the first stabilizer and the second stabilizer each have a net electrostatic charge that is opposite to that of the other, and wherein the first stabilizer and the second stabilizer each independently comprises a phospholipid, a protein, or a polymer. (i) a first component which comprises a gas microbubble and first stabilizer to stabilize said microbubble, wherein the gas of the gas microbubble comprises sulphur hexafluoride, a C 3-6 perfluorocarbon, nitrogen, air or mixtures thereof; and (ii) a second component which comprises a microdroplet comprising an oil phase and a second stabilizer to stabilize said microdroplet, where the oil comprises a diffusible component capable of diffusing into said gas microbubble so as to at least transiently increase the size thereof, and wherein the oil phase comprises a partly or fully halogenated hydrocarbon or a mixture thereof, where said second component further comprises a first therapeutic agent; where the microbubbles and microdroplets of said first and second components have opposite surface charges and form said clusters via attractive electrostatic interactions, where the first stabilizer and the second stabilizer each have a net electrostatic charge that is opposite to that of the other, and wherein the first stabilizer and the second stabilizer each independently comprises a phospholipid, a protein, or a polymer.
A power tool comprising: a housing including a field case portion and a gear case portion; a motor disposed in the field case portion of the housing; a gear set disposed in the gear case portion of the housing and operatively connected to the motor via a motor spindle; a fan rotatably connected to the motor; a plurality of intake conduits disposed along the housing; and a particle separation assembly in fluid communication with the plurality of intake conduits and including a baffle and a centrifugal chamber, wherein the baffle is operable to direct airflow from the intake conduits into the centrifugal chamber in a cyclonic path, and the centrifugal chamber includes a radial gap forming a particle dispersion port in the cyclonic path of the airflow to eject contamination from the airflow; wherein the particle separation assembly includes an end cap; wherein there is further provided a handle portion disposed between the field case portion and the particle separation assembly; characterised in that the handle portion comprises a plurality of spaced-apart fins arranged circumferentially around an end of the handle portion. a housing including a field case portion and a gear case portion; a motor disposed in the field case portion of the housing; a gear set disposed in the gear case portion of the housing and operatively connected to the motor via a motor spindle; a fan rotatably connected to the motor; a plurality of intake conduits disposed along the housing; and a particle separation assembly in fluid communication with the plurality of intake conduits and including a baffle and a centrifugal chamber, wherein the baffle is operable to direct airflow from the intake conduits into the centrifugal chamber in a cyclonic path, and the centrifugal chamber includes a radial gap forming a particle dispersion port in the cyclonic path of the airflow to eject contamination from the airflow; wherein the particle separation assembly includes an end cap; wherein there is further provided a handle portion disposed between the field case portion and the particle separation assembly; characterised in that the handle portion comprises a plurality of spaced-apart fins arranged circumferentially around an end of the handle portion.
A method for applying a coating to a substrate having a plurality of holes, the method comprising: applying a braze material to a substrate having a plurality of holes; heating the substrate to melt the braze material to form a melt; cooling the substrate to solidify the melt to form plugs in the respective holes; applying a coating to the substrate; and further heating the substrate to melt the plugs. applying a braze material to a substrate having a plurality of holes; heating the substrate to melt the braze material to form a melt; cooling the substrate to solidify the melt to form plugs in the respective holes; applying a coating to the substrate; and further heating the substrate to melt the plugs.
Method for removing material deposited on an object surface by moving a mechanical cleaning device for physical removing of material on the object surface over parts of or the entire object surface, wherein removing material deposited on the object surface by moving one end of the cleaning device in circumferential direction of the object surface, and retaining the other end of the mechanical cleaning device or moving the other end of the mechanical cleaning device in circumferential direction of the object surface, the method being characterized by holding the mechanical cleaning device in place and in contact with the object surface by means of a flexible part, flange or lip partly covering the object surface in circumferential direction thereof and in engagement with the object surface with a pretension force. retaining the other end of the mechanical cleaning device or moving the other end of the mechanical cleaning device in circumferential direction of the object surface, the method being characterized by holding the mechanical cleaning device in place and in contact with the object surface by means of a flexible part, flange or lip partly covering the object surface in circumferential direction thereof and in engagement with the object surface with a pretension force.
A disposable fluid pump (10a, 10b, 10c, 10d, 10e, 10f) configured to be associated with a drive unit having a magnetized or ferromagnetic portion, wherein the pump comprises: a housing including first and second faces (16, 18) and a sidewall extending between the first and second faces (16, 18), the housing defining a chamber and an inlet and an outlet in fluid communication with the chamber; and an impeller rotatably mounted within the chamber and including a plurality of flexible vanes, wherein the impeller includes a rigid hub at least partially formed of a magnetized or ferromagnetic material, with the flexible vanes extending radially outwardly from the rigid hub, wherein the magnetized or ferromagnetic portion of the impeller is configured to interact with the magnetized or ferromagnetic portion of the drive unit via magnetism, the impeller and housing are configured for rotation of the impeller via magnetic field, and the housing is unaffected by the magnetized portions of the impeller and/or drive unit. a housing including first and second faces (16, 18) and a sidewall extending between the first and second faces (16, 18), the housing defining a chamber and an inlet and an outlet in fluid communication with the chamber; and an impeller rotatably mounted within the chamber and including a plurality of flexible vanes, wherein the impeller includes a rigid hub at least partially formed of a magnetized or ferromagnetic material, with the flexible vanes extending radially outwardly from the rigid hub, wherein the magnetized or ferromagnetic portion of the impeller is configured to interact with the magnetized or ferromagnetic portion of the drive unit via magnetism, the impeller and housing are configured for rotation of the impeller via magnetic field, and the housing is unaffected by the magnetized portions of the impeller and/or drive unit.
A method of manufacturing a metal laminated substrate for an oxide superconducting wire, the method comprising the steps of: removing, in a state where a copper foil to which rolling is applied at a draft of 90% or more is held at a temperature below a recrystallization temperature, an absorbed material on a surface of the copper foil by applying sputter etching to the surface of the copper foil; removing an absorbedmaterial on a surface of a nonmagnetic metal sheet by applying sputter etching to the surface of the nonmagnetic metal sheet; bonding the copper foil and the metal sheet to each other by reduction rolls at an applied pressure of 300MPa to 1500MPa; orienting crystals of the copper by heating a laminated body obtained by the bonding at a crystal orientation temperature of copper or above; and forming a protective layer on a copper-side surface of the laminated body by coating. removing, in a state where a copper foil to which rolling is applied at a draft of 90% or more is held at a temperature below a recrystallization temperature, an absorbed material on a surface of the copper foil by applying sputter etching to the surface of the copper foil; removing an absorbedmaterial on a surface of a nonmagnetic metal sheet by applying sputter etching to the surface of the nonmagnetic metal sheet; bonding the copper foil and the metal sheet to each other by reduction rolls at an applied pressure of 300MPa to 1500MPa; orienting crystals of the copper by heating a laminated body obtained by the bonding at a crystal orientation temperature of copper or above; and forming a protective layer on a copper-side surface of the laminated body by coating.
An antibody that binds specifically to the EGF repeat region from amino acid residue 43 to 1377 of human Notch3, wherein the antibody binds to native Notch3 protein, and wherein the antibody comprises (a) a VL chain region comprising the amino acid sequence of SEQ ID NO: 3 and (b) a VH chain region comprising the amino acid sequence of SEQ ID NO: 2, or (a) a VL chain region comprising the amino acid sequence of SEQ ID NO: 5 and (b) a VH chain region comprising the amino acid sequence of SEQ ID NO: 4, or (a) a VH chain region comprising SEQ ID NO: 8, 9, and 10, and (b) a VL chain region comprising SEQ ID NO: 11, 12, and 13, or (a) a VH chain region comprising SEQ ID NO: 14, 15, and 16, and (b) a VL chain region comprising SEQ ID NO: 17, 18, and 19.
A dispersant composition for removing scales and solid deposits from a location selected from at least one of the inner walls of a reactor, the inner walls of pipelines, the inner walls of heat exchangers, valves and a catalyst bed, said composition comprising: • a dispersant salt in the range of 2 wt% to 60 wt%; • a hydrocarbon in the range of 40 wt% to 85 wt%; said hydrocarbon is selected from the group consisting of C 1 to C 50 carbon atom(s); and • an additive in the range of 0.1 wt% to 45 wt%; said additive is selected from ionic liquids, • wherein said dispersant salt is selected from a group consisting of linear alkyl benzene sulfonated isopropyl ammonium salt, dodecyl benzene sulfonated isopropyl ammonium salt and oleic acid isopropyl ammonium salt. • a dispersant salt in the range of 2 wt% to 60 wt%; • a hydrocarbon in the range of 40 wt% to 85 wt%; said hydrocarbon is selected from the group consisting of C 1 to C 50 carbon atom(s); and • an additive in the range of 0.1 wt% to 45 wt%; said additive is selected from ionic liquids, • wherein said dispersant salt is selected from a group consisting of linear alkyl benzene sulfonated isopropyl ammonium salt, dodecyl benzene sulfonated isopropyl ammonium salt and oleic acid isopropyl ammonium salt.
A stacked-plate heat exchanger for an internal combustion engine, consisting of a stack of plates which are stacked on top of each other and soldered to each other and have passage openings (14, 15, 16, 17) with a second diameter for an inlet and/or outlet for a first and a second heat exchange medium, wherein the lowermost disc of the stack is soldered to a base plate and the lowermost disc has at least one passage opening with the second diameter, wherein the passage openings are aligned with connection openings (2, 3, 11, 12) of the base plate with a first diameter, with at least one cover plate, wherein the stacked-plate heat exchanger has at least one collection reservoir for excess solder, wherein at least one annular recess formed as an annular groove (4, 5) is arranged as the at least one collection reservoir for excess solder on the side of the base plate facing the stack in the area of the connection openings (2, 3, 11, 12), wherein the second diameter of the passage opening is greater than the first diameter of the connection opening and is greater than an inner diameter of the annular groove (4, 5), so that the circumference of the passage opening is within the groove width (b) of the annular groove (4, 5).