mhurhangee/ep-ind-claims huggingface dataset:
A twin-spool turbojet engine comprising: - a low-pressure spool, comprising a low-pressure compressor, a low-pressure turbine and a low-pressure shaft connecting the low-pressure turbine to the low-pressure compressor, - a high-pressure spool, comprising a high-pressure compressor, a high-pressure turbine and a high-pressure shaft connecting the high-pressure turbine to the high-pressure compressor, the low-pressure shaft extending inside the high-pressure shaft, - a fan shaft, - a reduction mechanism coupling the low-pressure shaft and the fan shaft, - an exhaust casing through which exhaust gases flow downstream of the low-pressure turbine, the turbojet engine being characterized in that it further comprises a low-pressure shaft thrust bearing (BP#1) comprising an inner ring and an outer ring, one of the rings being fastened on the low-pressure shaft and the other of the rings being fastened on the exhaust casing. - a low-pressure spool, comprising a low-pressure compressor, a low-pressure turbine and a low-pressure shaft connecting the low-pressure turbine to the low-pressure compressor, - a high-pressure spool, comprising a high-pressure compressor, a high-pressure turbine and a high-pressure shaft connecting the high-pressure turbine to the high-pressure compressor, the low-pressure shaft extending inside the high-pressure shaft, - a fan shaft, - a reduction mechanism coupling the low-pressure shaft and the fan shaft, - an exhaust casing through which exhaust gases flow downstream of the low-pressure turbine,
A method for detecting capacitance of a filter capacitor of an inverter, wherein each output terminal of the inverter is connected to one terminal of a first filter capacitor through an inductor, and the other terminals of all first filter capacitors are interconnected, and characterized in that the method comprises: outputting, by the inverter, a first voltage U̇ 1 i through an i th output terminal of the inverter, wherein a voltage output by an output terminal other than the i th output terminal is zero, i=1, 2...N, i≠j, 1≤j≤N, i and j are positive integers, and N is a total quantity of output terminals of the inverter; obtaining, by the inverter, İ ik, wherein İ ik is a current of an inductor connected to a k th output terminal when the i th output terminal outputs the first voltage U̇ 1 i, k=1, 2...N, and k is a positive integer; determining, by the inverter, a ratio of | İ ij | to | İ ik |, wherein İ ij is a current of an inductor connected to a j th output terminal when the i th output terminal of the inverter outputs the first voltage U̇ 1 i, | İ ij | is a magnitude of İ ij, | İ ik | is a magnitude of İ ik, and k≠j; and determining, by the inverter based on İ ij, U̇ 1 i, and the ratio of | İ ij | to | İ ik |, capacitance of a first filter capacitor connected to the j th output terminal. outputting, by the inverter, a first voltage U̇ 1 i through an i th output terminal of the inverter, wherein a voltage output by an output terminal other than the i th output terminal is zero, i=1, 2...N, i≠j, 1≤j≤N, i and j are positive integers, and N is a total quantity of output terminals of the inverter; obtaining, by the inverter, İ ik, wherein İ ik is a current of an inductor connected to a k th output terminal when the i th output terminal outputs the first voltage U̇ 1 i, k=1, 2...N, and k is a positive integer; determining, by the inverter, a ratio of | İ ij | to | İ ik |, wherein İ ij is a current of an inductor connected to a j th output terminal when the i th output terminal of the inverter outputs the first voltage U̇ 1 i, | İ ij | is a magnitude of İ ij, | İ ik | is a magnitude of İ ik, and k≠j; and determining, by the inverter based on İ ij, U̇ 1 i, and the ratio of | İ ij | to | İ ik |, capacitance of a first filter capacitor connected to the j th output terminal.
Driver assistance device for a motor vehicle, having: - a first ultrasonic sensor (3 to 6) having a diaphragm for transmitting and receiving ultrasound waves, wherein the first ultrasonic sensor (3 to 6) has a first resonant frequency (f1 to f4), - a second ultrasonic sensor (3 to 6) having a diaphragm for transmitting and receiving ultrasound waves, wherein the second ultrasonic sensor (3 to 6) has a second resonant frequency (f1 to f4), which is different from the first resonant frequency (f1 to f4), and - a control device for actuating the ultrasonic sensors (3 to 6), characterized in that the control device is designed to switch at least the first ultrasonic sensor (3 to 6) between a first mode of operation, in which the first ultrasonic sensor (3 to 6) transmits the ultrasound waves at the first resonant frequency (f1 to f4), and a second mode of operation, in which the first ultrasonic sensor (3 to 6) transmits the ultrasound waves at the second resonant frequency (f1 to f4). - a first ultrasonic sensor (3 to 6) having a diaphragm for transmitting and receiving ultrasound waves, wherein the first ultrasonic sensor (3 to 6) has a first resonant frequency (f1 to f4), - a second ultrasonic sensor (3 to 6) having a diaphragm for transmitting and receiving ultrasound waves, wherein the second ultrasonic sensor (3 to 6) has a second resonant frequency (f1 to f4), which is different from the first resonant frequency (f1 to f4), and - a control device for actuating the ultrasonic sensors (3 to 6), characterized in that the control device is designed to switch at least the first ultrasonic sensor (3 to 6) between a first mode of operation, in which the first ultrasonic sensor (3 to 6) transmits the ultrasound waves at the first resonant frequency (f1 to f4), and a second mode of operation, in which the first ultrasonic sensor (3 to 6) transmits the ultrasound waves at the second resonant frequency (f1 to f4).
A vacuum conveyer system comprising: a vacuum box extending between a first box end and a second box end and comprising a first discrete vacuum chamber; a nose roll disposed adjacent to the first box end and comprising a second discrete vacuum chamber; and a foraminous member disposed about both of the nose roll and the vacuum box; characterized in that the nose roll comprises a dead shaft and a live roll, wherein a recess within the dead shaft forms the second discrete vacuum chamber, and wherein the system further comprises: an airflow conduit disposed adjacent to the live roll; and a labyrinth seal (157, 159, 161) connecting the live roll to the airflow conduit. a vacuum box extending between a first box end and a second box end and comprising a first discrete vacuum chamber; a nose roll disposed adjacent to the first box end and comprising a second discrete vacuum chamber; and a foraminous member disposed about both of the nose roll and the vacuum box; characterized in that the nose roll comprises a dead shaft and a live roll, wherein a recess within the dead shaft forms the second discrete vacuum chamber, and wherein the system further comprises: an airflow conduit disposed adjacent to the live roll; and a labyrinth seal (157, 159, 161) connecting the live roll to the airflow conduit.
An antibody or antigen-binding fragment thereof that specifically binds programmed death 1 (PD-1) for use in a method of treating or inhibiting the growth of a tumor in a subject in combination with radiation therapy, said method comprising: (a) selecting a subject with a first tumor lesion and at least a second tumor lesion distal to the first tumor lesion; and (b) administering to the subject in need thereof a combination of one or more doses of radiation therapy and one or more doses of a therapeutically effective amount of the antibody or antigen-binding fragment thereof that specifically binds PD-1, wherein the anti-PD-1 antibody or antigen-binding fragment thereof comprises three heavy chain complementarity determining regions (HCDR1, HCDR2 and HCDR3) and three light chain complementarity determining regions (LCDR1, LCDR2 and LCDR3), wherein HCDR1 comprises the amino acid sequence of SEQ ID NO: 3; HCDR2 comprises the amino acid sequence of SEQ ID NO: 4; HCDR3 comprises the amino acid sequence of SEQ ID NO: 5; LCDR1 comprises the amino acid sequence of SEQ ID NO: 6; LCDR2 comprises the amino acid sequence of SEQ ID NO: 7; and LCDR3 comprises the amino acid sequence of SEQ ID NO: 8; and wherein the radiation therapy is administered to the first tumor lesion but not the second tumor lesion, and wherein administration of the combination results in tumor regression in both the first tumor lesion and the second tumor lesion. (a) selecting a subject with a first tumor lesion and at least a second tumor lesion distal to the first tumor lesion; and (b) administering to the subject in need thereof a combination of one or more doses of radiation therapy and one or more doses of a therapeutically effective amount of the antibody or antigen-binding fragment thereof that specifically binds PD-1, wherein the anti-PD-1 antibody or antigen-binding fragment thereof comprises three heavy chain complementarity determining regions (HCDR1, HCDR2 and HCDR3) and three light chain complementarity determining regions (LCDR1, LCDR2 and LCDR3), wherein HCDR1 comprises the amino acid sequence of SEQ ID NO: 3; HCDR2 comprises the amino acid sequence of SEQ ID NO: 4; HCDR3 comprises the amino acid sequence of SEQ ID NO: 5; LCDR1 comprises the amino acid sequence of SEQ ID NO: 6; LCDR2 comprises the amino acid sequence of SEQ ID NO: 7; and LCDR3 comprises the amino acid sequence of SEQ ID NO: 8; and wherein the radiation therapy is administered to the first tumor lesion but not the second tumor lesion, and wherein administration of the combination results in tumor regression in both the first tumor lesion and the second tumor lesion.
A method for operating a battery pack comprising a housing including an electromechanical interface for connecting to an electric tool, a stationary machine, a cleaning appliance, or a gardening tool, the method comprising the steps: - providing multiple different target settings relating to the battery pack, which are selectable by a user; - target-specific setting of at least one operating parameter of the battery pack by a battery management system, which is integrated into the housing of the battery pack, depending on which of the target settings is selected; characterized by the method step: - operating the battery pack by the battery management system, which controls and/or regulates the battery pack autonomously, according to the target-specifically set operating parameter. - providing multiple different target settings relating to the battery pack, which are selectable by a user; - target-specific setting of at least one operating parameter of the battery pack by a battery management system, which is integrated into the housing of the battery pack, depending on which of the target settings is selected; - operating the battery pack by the battery management system, which controls and/or regulates the battery pack autonomously, according to the target-specifically set operating parameter.
A soluble AXL variant polypeptide, wherein said polypeptide lacks the AXL transmembrane domain and comprises at least one amino acid modification relative to the wild-type AXL sequence (SEQ ID NO:1), wherein said modification increases the affinity of the AXL polypeptide binding to Growth arrest-specific protein 6, and wherein said modification is at a position number n, wherein n is selected from 72, 19, 23, 26, 27, 32, 33, 38, 44, 61, 65, 74, 78, 79, 86, 87, 88, 90, 92, 97, 98, 105, 109, 112, 113, 116, 118, or 127 or a combination thereof, wherein n+7 equals the numbering of SEQ ID NO:1, wherein modifications are selected from the group consisting of: 1) Asn33Ser, Ser74Asn, Asp87Gly, and Val92Ala, 2) Gln86Arg, Ile90Val, and Val92Ala, 3) Asp87Gly, and Val92Ala, 4) Glu27Lys, His61Tyr, Ala72Val, Asp88Asn, Val92Ala, and Thr98Ala, 5) Val92Ala, Gln109Arg, 6) Val92Ala, Val112Ala, Phe113Leu, and Thr118Ala, 7) Val92Ala, and Thr98Pro, 8) Thr38Ile, and Val92Ala, 9) Thr23Met, and Val92Ala, 10) Gln86Arg, Val92Ala, 11) Ala19Thr, Glu26Gly, Glu27Gly, and Val92Ala, 12) Ile90Met and Val92Ala, 13) Gly32Ser, and Val92Ala, 14) Val92Ala, and Gly127Arg, 15) Asp87Gly, Val92Ala, and Gly127Arg, 16) Gly32Ser, Val92Ala, and Gly127Arg, 17) Gly32Ser, Asp87Gly, and Val92Ala. 1) Asn33Ser, Ser74Asn, Asp87Gly, and Val92Ala, 2) Gln86Arg, Ile90Val, and Val92Ala, 3) Asp87Gly, and Val92Ala, 4) Glu27Lys, His61Tyr, Ala72Val, Asp88Asn, Val92Ala, and Thr98Ala, 5) Val92Ala, Gln109Arg, 6) Val92Ala, Val112Ala, Phe113Leu, and Thr118Ala, 7) Val92Ala, and Thr98Pro, 8) Thr38Ile, and Val92Ala, 9) Thr23Met, and Val92Ala, 10) Gln86Arg, Val92Ala, 11) Ala19Thr, Glu26Gly, Glu27Gly, and Val92Ala, 12) Ile90Met and Val92Ala, 13) Gly32Ser, and Val92Ala, 14) Val92Ala, and Gly127Arg, 15) Asp87Gly, Val92Ala, and Gly127Arg, 16) Gly32Ser, Val92Ala, and Gly127Arg, 17) Gly32Ser, Asp87Gly, and Val92Ala.
A method for producing an organic radiation-emitting component, comprising the following method steps: A) providing a first electrode layer on a substrate, B) applying a structured electrically conductive layer on the first electrode layer, wherein the electrically conductive layer comprises a metal, C) producing an electrically insulating layer comprising an oxide of the metal of the electrically conductive layer on the surfaces of the electrically conductive layer which are remote from the first electrode layer by oxidation of the metal, D) applying at least one organic functional layer on the first electrode layer and the electrically insulating layer, and E) applying a second electrode layer on the at least one organic functional layer, characterized in that - in method step C), the electrically insulating layer is produced with a thickness of greater than or equal to 5 nanometers and less than or equal to 100 nanometers. A) providing a first electrode layer on a substrate, B) applying a structured electrically conductive layer on the first electrode layer, wherein the electrically conductive layer comprises a metal, C) producing an electrically insulating layer comprising an oxide of the metal of the electrically conductive layer on the surfaces of the electrically conductive layer which are remote from the first electrode layer by oxidation of the metal, D) applying at least one organic functional layer on the first electrode layer and the electrically insulating layer, and E) applying a second electrode layer on the at least one organic functional layer, - in method step C), the electrically insulating layer is produced with a thickness of greater than or equal to 5 nanometers and less than or equal to 100 nanometers.
A joint prosthesis system for converting a joint prosthesis from a first type to a more constrained second type in situ, comprising: a femoral component having an articular side, a bone facing side, and medial and lateral condylar portions (32a-b), the medial and lateral condylar portions at least partially defining an intercondylar recess located therebetween and a transverse opening extending transverse to the articular side and bone facing side, the intercondylar recess intersecting the transverse opening; a first tibial assembly (200, 210) having a tibial baseplate component and a post extending therefrom; a first modular component separately formed from the femoral component and being configured to connect thereto, the first modular component having a camming surface configured to articulate with the post of the first tibial assembly; a second tibial assembly having a tibial baseplate component and a head extending therefrom, the head defining an axle opening extending therethrough; and an axle configured to be received within the axle opening and transverse opening so as to connect the second tibial assembly to the femoral component. a femoral component having an articular side, a bone facing side, and medial and lateral condylar portions (32a-b), the medial and lateral condylar portions at least partially defining an intercondylar recess located therebetween and a transverse opening extending transverse to the articular side and bone facing side, the intercondylar recess intersecting the transverse opening; a first tibial assembly (200, 210) having a tibial baseplate component and a post extending therefrom; a first modular component separately formed from the femoral component and being configured to connect thereto, the first modular component having a camming surface configured to articulate with the post of the first tibial assembly; a second tibial assembly having a tibial baseplate component and a head extending therefrom, the head defining an axle opening extending therethrough; and an axle configured to be received within the axle opening and transverse opening so as to connect the second tibial assembly to the femoral component.
A biomass conversion catalyst in the form of particles comprising silica, clay, and a phosphorous-promoted zeolite; wherein said particles have: i) an average pore volume of pores ranging in diameter from 80 to 600 Å of at least 0.025 cm 3 /g, and ii) an average pore volume of pores ranging in diameter from 20 to 80 Å of no more than 0.08 cm 3 /g; wherein each of said average pore volumes in i) and ii) are obtained from the adsorption branch of the nitrogen isotherm, when measured per ASTM method D4222 at 77°K, and discretized according to the BJH pore size distribution model wherein said biomass conversion catalyst is free of or substantially free of amorphous alumina and further promoted with phosphorous.
A navigation system for an automated vehicle, said system comprising: an object-detector that indicates relative-positions of a plurality of objects proximate to the automated vehicle; a first-map that indicates a first-object and a second-object detected by the object-detector; a second-map different from the first-map, said second-map indicates the first-object and the second-object; and a controller in communication with the object-detector, the first-map, and the second-map, said controller configured to determine first-coordinates of the automated vehicle on the first-map based on the relative-positions of the first-object and the second-object, determine second-coordinates of the automated vehicle on the second-map based on the relative-positions of the first-object and the second-object, and align the first-map and the second-map by determining an offset along an X axis, a Y axis, and a Z axis of reference-coordinates, as well as a correction of a rotational difference, based on the first-coordinates, the second-coordinates, and the relative-positions of the first-object and the second-object, wherein the first-coordinates and the second-coordinates are relative to a same reference frame. an object-detector that indicates relative-positions of a plurality of objects proximate to the automated vehicle; a first-map that indicates a first-object and a second-object detected by the object-detector; a second-map different from the first-map, said second-map indicates the first-object and the second-object; and a controller in communication with the object-detector, the first-map, and the second-map, said controller configured to determine first-coordinates of the automated vehicle on the first-map based on the relative-positions of the first-object and the second-object, determine second-coordinates of the automated vehicle on the second-map based on the relative-positions of the first-object and the second-object, and align the first-map and the second-map by determining an offset along an X axis, a Y axis, and a Z axis of reference-coordinates, as well as a correction of a rotational difference, based on the first-coordinates, the second-coordinates, and the relative-positions of the first-object and the second-object, wherein the first-coordinates and the second-coordinates are relative to a same reference frame.
A resin molded body comprising: a resin structure; an intermediate layer comprising an inorganic filler and an organic resin binder and provided on a surface of at least a part of the resin structure; and a thermal sprayed ceramic coating provided on the intermediate layer, wherein the inorganic filler is amorphous in shape and has a central particle diameter of 20 μm or more and 100 μm or less, wherein the inorganic filler is a crushed inorganic filler and the central particle diameter of the inorganic filler is the particle diameter d50 defined by the median diameter, wherein the particle diameter d50 refers to the volume average particle diameter at which the cumulative volume calculated from the small diameter side is 50% in the particle diameter distribution on a volume basis measured by the laser diffraction method, and wherein the intermediate layer has a thickness of 50 μm or more and 250 μm or less, the central particle diameter a of the inorganic filler and the thickness b of the intermediate layer satisfy the relationship of b ≥ 2 a, the inorganic filler is contained in the intermediate layer in an amount of 40% to 60% as a volume ratio, and the surface of the intermediate layer on which the thermal sprayed ceramic coating is formed has irregularities capable of effectively exerting an anchor effect on the thermal sprayed ceramic coating. a resin structure; an intermediate layer comprising an inorganic filler and an organic resin binder and provided on a surface of at least a part of the resin structure; and a thermal sprayed ceramic coating provided on the intermediate layer, wherein the inorganic filler is amorphous in shape and has a central particle diameter of 20 μm or more and 100 μm or less, wherein the inorganic filler is a crushed inorganic filler and the central particle diameter of the inorganic filler is the particle diameter d50 defined by the median diameter, wherein the particle diameter d50 refers to the volume average particle diameter at which the cumulative volume calculated from the small diameter side is 50% in the particle diameter distribution on a volume basis measured by the laser diffraction method, and wherein the intermediate layer has a thickness of 50 μm or more and 250 μm or less, the central particle diameter a of the inorganic filler and the thickness b of the intermediate layer satisfy the relationship of b ≥ 2 a, the inorganic filler is contained in the intermediate layer in an amount of 40% to 60% as a volume ratio, and the surface of the intermediate layer on which the thermal sprayed ceramic coating is formed has irregularities capable of effectively exerting an anchor effect on the thermal sprayed ceramic coating.
Method for operating a robot, which comprises a plurality of, successive links, a securing device for securing an end effector (4, 46) and drives for moving the robot arm comprising links and a control device connected to the drives, in which a hierarchical regulatory/control strategy is saved with a plurality of differently prioritised regulatory and control functionalities, comprising the following method step: during the movement of the robot arm switching into a higher prioritised regulatory/control functionality, as soon as a stable movement of the robot arm is possible by means of the higher prioritised regulatory/control functionality and an execution condition independent of the higher prioritised regulatory/control functionality has been met, wherein for at least two degrees of freedom provided for the movement of the robot arm independent prioritised regulatory/control functionalities are provided and for at least one of the degrees of freedom a switch is made to a higher prioritised regulatory/control functionality, as soon as a stable movement of the robot arm is possible by means of the corresponding higher prioritised regulatory/control functionality and at least for this degree of freedom the execution condition independent of the higher prioritised regulatory/control functionality is met.