mhurhangee/patent-ind-claim-en huggingface dataset:
A laser machining method using: a head configured to variably make a shape of a radiation locus (P), which is the locus of motion of a radiation point (L), on a workpiece (W) using laser; and a robot configured to cause the head to move, characterized by : obtaining attribute information indicating a distribution of an attribute of the workpiece (W) in a machined area of the workpiece (W), and being a distribution of a thickness of the workpiece (W), a distribution associated with a surface state of the workpiece (W), and/or a distribution associated with a machining state of the workpiece (W); dividing the shape of the radiation locus (P) into a plurality of divided areas (DA) based on the attribute information ; and adjusting, based on the attribute information and in each of the plurality of divided areas (DA), at least one of a locus velocity (LV) of the laser from the head and an output of the laser from the head . obtaining attribute information indicating a distribution of an attribute of the workpiece (W) in a machined area of the workpiece (W), and being a distribution of a thickness of the workpiece (W), a distribution associated with a surface state of the workpiece (W), and/or a distribution associated with a machining state of the workpiece (W); dividing the shape of the radiation locus (P) into a plurality of divided areas (DA) based on the attribute information ; and adjusting, based on the attribute information and in each of the plurality of divided areas (DA), at least one of a locus velocity (LV) of the laser from the head and an output of the laser from the head .
A multifilament comprising 5 or more monofilaments, wherein the multifilament contains polyethylene having an intrinsic viscosity [η] of 5.0 dL/g or more and 40.0 dL/g or less and substantially including ethylene as a repeating unit, and shows 1000 times or more in number of reciprocating abrasions at break in an abrasion resistance test measured at a load of 5 cN/dtex in accordance with JIS L-1095 L-1095, and whereas the intrinsic viscosity is measured as specified in the description.
A battery connection module used to connect a plurality of batteries , the battery connection module comprising: a carrying tray ; a plurality of busbars assembled on the carrying tray , the plurality of busbars being used to connect the plurality of batteries ; a main circuit board comprising a plurality of first wirings and a plurality of second wirings , connect points of one ends of the plurality of first wirings being converged to a first connect point connection region , the other ends of at least some of the plurality of first wirings connecting the plurality of busbars , one ends of the plurality of second wirings connecting operating components mounted on the main circuit board and connect points of other ends of the plurality of second wirings being converged in a second connect point connection region ; and a bridging circuit board comprising a plurality of bridging wirings which are used to respectively bridge the plurality of first wirings of the first connect point connection region and the plurality of second wirings of the second connect point connection region , each bridging wiring comprising a fuse segment thereon, wherein the battery connection module further comprises connectors ; two ends of each bridging wiring are connected respectively with the first wiring and the second wiring of the main circuit board via terminals of the connectors . a carrying tray ; a plurality of busbars assembled on the carrying tray , the plurality of busbars being used to connect the plurality of batteries ; a main circuit board comprising a plurality of first wirings and a plurality of second wirings , connect points of one ends of the plurality of first wirings being converged to a first connect point connection region , the other ends of at least some of the plurality of first wirings connecting the plurality of busbars , one ends of the plurality of second wirings connecting operating components mounted on the main circuit board and connect points of other ends of the plurality of second wirings being converged in a second connect point connection region ; and a bridging circuit board comprising a plurality of bridging wirings which are used to respectively bridge the plurality of first wirings of the first connect point connection region and the plurality of second wirings of the second connect point connection region , each bridging wiring comprising a fuse segment thereon, wherein the battery connection module further comprises connectors ; two ends of each bridging wiring are connected respectively with the first wiring and the second wiring of the main circuit board via terminals of the connectors .
A topical cosmetic use of a Polygonum bistorta extract obtained by aqueous extraction, for stimulating the expression of perlecan and/or dystroglycan, in particular in the extracellular matrix and/or in the epithelial basement membrane, especially the dermoepidermal junction, the Polygonum bistorta extract being obtained by extraction from the Polygonum bistorta root.
An isolated antibody, or an antigen-binding fragment thereof, that binds to KDR, comprising (i) a heavy chain variable region comprising the amino acid sequence set forth in SEQ ID NO:9 and (ii) a light chain variable region comprising the amino acid sequence set forth in SEQ ID NO:10, wherein the antibody comprises a human IgG constant domain.
A loading system suitable for loading roller bearing rings into the space between the grinding wheel and the driving wheel of a centerless grinding machine, the loading system comprising, two driver drums , which are two cylindrical drums that are set parallel to each other and rotate in the same direction, the driver drums being configured to drive the roller bearing rings in the space between the driver drums, the roller bearing rings being conveyed coaxially to each other, and with their axis parallel to the axis of the driver drums , such that the sidewalls of the roller bearing rings contact each other, such that the drive drums enable conveyance of roller bearing rings to the space between the grinding wheel and the driving wheel of a centerless grinding machine, characterized by comprising; a further loading system upstream of the driver drums configured to load the roller bearing rings into the two driver drums , such that the roller bearings are spun and accelerated before being conveyed to the driver drums and thus the roller bearing rings do not experience any sudden speed change when they reach the drums wherein the further loading system upstream of the driver drums comprises, a rotary feeder that has a pipe-like shape, its axis of rotation being parallel to the axis of rotation of the driver drums , wherein the rotary feeder is configured to have the roller bearing rings pass through it before being conveyed to the driver drums and, wherein, while passing through the rotary feeder , the rotation axis of the roller bearing rings is parallel to the rotation axis of the rotary feeder and the roller bearing rings are accelerated by being spun, and such that the roller bearing rings getting out of the rotary feeder are driven to between the driver drums without direction change, and wherein the further loading system upstream of the driver drums further comprises, a motor that provides the rotating motion of the rotary feeder .
A high-temperature lithium-ion battery electrolyte, comprising a lithium salt, an organic solvent, and a water removal additive, wherein the water removal additive is a cyclic anhydride compound with a structural formula shown as a formula : wherein R 1 is a -NCH-(CH 2 ) n -CN group, 0<n≤20, and n is an integer; R 2 is a -R 11 -CO-NR 12 R 13 group, R 11 is a -(CH 2 ) m - group, 0≤m<19, each of R 12 and R 13 is one independently selected from H and -(CH 2 ) x -CH 3 groups, 0≤x≤19-m, and both m and x are integers; and R 3 is any one selected from F, Cl, and Br. R 1 is a -NCH-(CH 2 ) n -CN group, 0<n≤20, and n is an integer; R 2 is a -R 11 -CO-NR 12 R 13 group, R 11 is a -(CH 2 ) m - group, 0≤m<19, each of R 12 and R 13 is one independently selected from H and -(CH 2 ) x -CH 3 groups, 0≤x≤19-m, and both m and x are integers; and R 3 is any one selected from F, Cl, and Br.
Freeze-dried pharmaceutical composition comprising mitomycin C, which comprises urea and is obtainable by a process, in which a solution of mitomycin C is freeze-dried, wherein the solution comprises at least one organic solvent.
A control arrangement for a variable-speed wind turbine constructed to fulfil the requirements of a wind class as defined by IEC 61400-1, comprising - a loading analysis module configured to analyse a number of environment values (10_1, ..., 10_n) to establish whether the momentary wind turbine loading (L) is lower than a loading threshold (L max ) when the rotational speed of the aerodynamic rotor has reached its rated value (ω rated ), which rated speed (ω rated ) is associated with a level of output power (P 0 ) that is less than the rated output power (P rated ) for that class of wind turbine; and - a speed boost module configured to determine a speed increment (ω inc ) for the rotational speed of the aerodynamic rotor on the basis of an ideal power/speed trajectory (Tideal) for that wind turbine type if the wind turbine loading (L) is lower than the loading threshold (L max ) and to apply the speed increment (ω inc ) to the rotational speed of the aerodynamic rotor . - a loading analysis module configured to analyse a number of environment values (10_1, ..., 10_n) to establish whether the momentary wind turbine loading (L) is lower than a loading threshold (L max ) when the rotational speed of the aerodynamic rotor has reached its rated value (ω rated ), which rated speed (ω rated ) is associated with a level of output power (P 0 ) that is less than the rated output power (P rated ) for that class of wind turbine; and - a speed boost module configured to determine a speed increment (ω inc ) for the rotational speed of the aerodynamic rotor on the basis of an ideal power/speed trajectory (Tideal) for that wind turbine type if the wind turbine loading (L) is lower than the loading threshold (L max ) and to apply the speed increment (ω inc ) to the rotational speed of the aerodynamic rotor .
A method performed by a radio base station for handling a power disturbance caused by a radio unit, RU, of the radio base station , the method comprising: - obtaining (S410) scheduling information of data traffic associated with the RU ; - comparing (S430) the power disturbance with one or more first thresholds, wherein the power disturbance is caused by the RU adapted to handle the data traffic according to the scheduling information; and - adjusting (S440) a switching frequency of a direct current to direct current, DC/DC converter based on the comparison, wherein the DC/DC converter is comprised in the RU to power the RU . - obtaining (S410) scheduling information of data traffic associated with the RU ; - comparing (S430) the power disturbance with one or more first thresholds, wherein the power disturbance is caused by the RU adapted to handle the data traffic according to the scheduling information; and - adjusting (S440) a switching frequency of a direct current to direct current, DC/DC converter based on the comparison, wherein the DC/DC converter is comprised in the RU to power the RU .
A power conversion device arranged to convert power between a DC circuit and an AC circuit , the power conversion device comprising: - a plurality of leg circuits which correspond to respective phases of the AC circuit and are connected in parallel between common first and second DC terminals, each leg circuit including: - a plurality of converter cells each including an energy storage and cascaded to one another; and - at least one inductance connected in series to the plurality of converter cells ; and - a control device is configured to control operations of the plurality of converter cells, wherein each leg circuit is divided into a first arm and a second arm with a connection portion (Nu, Nv, Nw) electrically connected to a corresponding phase of the AC circuit being interposed; the first arm of each leg circuit includes: - a first inductance , characterized in that the first arm of each leg circuit further includes: - a plurality of first converter cells controlled not based on the circulating current; - a plurality of second converter cells controlled based on the circulating current (Icc); and - the second arm of each leg circuit includes a plurality of third converter cells controlled not based on the circulating current, wherein the control device generates a first voltage command value (Vpref) for controlling output voltages from the plurality of first converter cells for each leg circuit based on a DC current (Idc) and a DC voltage (Vdcp, Vdcn) from the DC circuit and an AC current (lac) and an AC voltage of each phase (Vacu, Vacv, Vacw) from the AC circuit ; and the control device generates a second voltage command value (Vpref2) for controlling output voltages from the plurality of second converter cells by linearly combining a first value (Vccref) based on a difference between the circulating current (Icc) and a circulating current command value (Vpref) with the first voltage command value for each leg circuit. - a plurality of leg circuits which correspond to respective phases of the AC circuit and are connected in parallel between common first and second DC terminals, each leg circuit including: - a plurality of converter cells each including an energy storage and cascaded to one another; and - at least one inductance connected in series to the plurality of converter cells ; and - a control device is configured to control operations of the plurality of converter cells, - a first inductance , characterized in that the first arm of each leg circuit further includes: - a plurality of first converter cells controlled not based on the circulating current; - a plurality of second converter cells controlled based on the circulating current (Icc); and - the second arm of each leg circuit includes a plurality of third converter cells controlled not based on the circulating current, wherein the control device generates a first voltage command value (Vpref) for controlling output voltages from the plurality of first converter cells for each leg circuit based on a DC current (Idc) and a DC voltage (Vdcp, Vdcn) from the DC circuit and an AC current (lac) and an AC voltage of each phase (Vacu, Vacv, Vacw) from the AC circuit ; and
A robotic system for grasping and moving objects, said robotic system comprising: an articulated arm ; a vacuum end-effector attached to the articulated arm , the vacuum end effector including a compliant section coupled to a vacuum source, the compliant section comprising a tubular or conical bellows; the vacuum end-effector further including a sensing manipulator that comprises a flow monitor , a movement detection system, and a controller , the flow monitor providing information regarding an air flow provided at the compliant section of the vacuum end-effector , the movement detection system providing information regarding movement of the compliant section of the vacuum end-effector with respect to the articulated arm in at least two degrees of freedom, the movement detection system comprising a magnetic field sensor aligned against a magnet mounted to the articulated arm , the magnetic field sensor being attached to a bracket that is further attached to an attachment band surrounding a portion of the tubular or conical bellows; and the controller communicating with the flow monitor and the magnetic field sensor for determining, responsive to both the information regarding the air flow provided at the compliant section of the vacuum end-effector from the flow monitor and the information regarding movement of the compliant section of the vacuum end-effector with respect to the articulated arm from the movement detection system , whether to increase the air flow provided at the compliant section of the vacuum end-effector to maintain a grasp of an object by the vacuum end-effector for transport. an articulated arm ; a vacuum end-effector attached to the articulated arm , the vacuum end effector including a compliant section coupled to a vacuum source, the compliant section comprising a tubular or conical bellows; the vacuum end-effector further including a sensing manipulator that comprises a flow monitor , a movement detection system, and a controller , the flow monitor providing information regarding an air flow provided at the compliant section of the vacuum end-effector , the movement detection system providing information regarding movement of the compliant section of the vacuum end-effector with respect to the articulated arm in at least two degrees of freedom, the movement detection system comprising a magnetic field sensor aligned against a magnet mounted to the articulated arm , the magnetic field sensor being attached to a bracket that is further attached to an attachment band surrounding a portion of the tubular or conical bellows; and the controller communicating with the flow monitor and the magnetic field sensor for determining, responsive to both the information regarding the air flow provided at the compliant section of the vacuum end-effector from the flow monitor and the information regarding movement of the compliant section of the vacuum end-effector with respect to the articulated arm from the movement detection system , whether to increase the air flow provided at the compliant section of the vacuum end-effector to maintain a grasp of an object by the vacuum end-effector for transport.
A system of a cable , a cable lug and a hose , wherein said cable is made of metal, wherein said cable has a terminal , and is configured for restraining said hose from whipping in case of accidental rupture, wherein said cable lug is made of metal and comprises an end plate portion , with an eyelet and a hollow shank , wherein the shank is defined by two opposite wings , wherein the wings are arranged to grip said terminal , wherein the hose has an end fitting and said plate end portion of the cable lug is arranged to fit the end fitting , and wherein said wings of said shank are connected to each other and to said terminal by a weld bead . wherein said cable is made of metal, wherein said cable has a terminal , and is configured for restraining said hose from whipping in case of accidental rupture, wherein said cable lug is made of metal and comprises an end plate portion , with an eyelet and a hollow shank , wherein the shank is defined by two opposite wings , wherein the wings are arranged to grip said terminal , wherein the hose has an end fitting and said plate end portion of the cable lug is arranged to fit the end fitting , and wherein said wings of said shank are connected to each other and to said terminal by a weld bead .
A method of controlling operations in a power distribution system, comprising: monitoring an electrical parameter of an electrical signal from a first power source associated with supplying power to a load ; determining whether the electrical parameter satisfies a parameter threshold; selecting to increment or decrement a count value in accordance with the determination; and responsive to determining that the count value satisfies a first count threshold, initiating a start signal to start operation of a second power source to supply power to the load , wherein the count value is incremented if the electrical parameter of the electrical signal satisfies the parameter threshold, characterized in that the count value is decremented if the electrical parameter of the electrical signal does not satisfy the parameter threshold. monitoring an electrical parameter of an electrical signal from a first power source associated with supplying power to a load ; determining whether the electrical parameter satisfies a parameter threshold; selecting to increment or decrement a count value in accordance with the determination; and responsive to determining that the count value satisfies a first count threshold, initiating a start signal to start operation of a second power source to supply power to the load , wherein the count value is incremented if the electrical parameter of the electrical signal satisfies the parameter threshold, characterized in that the count value is decremented if the electrical parameter of the electrical signal does not satisfy the parameter threshold.
Method of additively manufacturing a ceramic matrix composite comprising the steps of: - providing a ceramic fiber and a powdery base material for the ceramic matrix composite, - layer-by-layer building up the ceramic matrix material for the ceramic matrix composite by irradiating of a powder bed formed by the base material with an energy beam according to a predetermined geometry, wherein the base material is remelted, solidified and adhesively joined to the ceramic fiber in that parameters of the energy beam are locally chosen such that in a contact region (CR) of the ceramic fiber and the powder bed, the ceramic fiber is only partly remelted. - providing a ceramic fiber and a powdery base material for the ceramic matrix composite, - layer-by-layer building up the ceramic matrix material for the ceramic matrix composite by irradiating of a powder bed formed by the base material with an energy beam according to a predetermined geometry, wherein the base material is remelted, solidified and adhesively joined to the ceramic fiber in that parameters of the energy beam are locally chosen such that in a contact region (CR) of the ceramic fiber and the powder bed, the ceramic fiber is only partly remelted.
A pneumatic tire, comprising at least one tire component selected from the group consisting of a sidewall, and a tire internal component, the at least one tire component being formed from a rubber composition comprising carbon black, silica, and an emulsion-polymerized rubber that has an acetone extractable content of at most 2.5% by mass when determined by an acetone extraction method, wherein the rubber composition comprises, relative to 100 parts by mass of a rubber component of the rubber composition 5 to 100 parts by mass of the carbon black, wherein the rubber composition used for sidewalls and tire internal components comprises 10 % by mass or more and 70 % by mass or less of the emulsion-polymerized rubber, based on 100% by mass of the rubber component, wherein the acetone extractable content in the emulsion-polymerized rubbers is determined in conformity with JIS K 6350. at least one tire component selected from the group consisting of a sidewall, and a tire internal component, the at least one tire component being formed from a rubber composition comprising carbon black, silica, and an emulsion-polymerized rubber that has an acetone extractable content of at most 2.5% by mass when determined by an acetone extraction method, wherein the rubber composition comprises, relative to 100 parts by mass of a rubber component of the rubber composition 5 to 100 parts by mass of the carbon black, wherein the rubber composition used for sidewalls and tire internal components comprises 10 % by mass or more and 70 % by mass or less of the emulsion-polymerized rubber, based on 100% by mass of the rubber component, wherein the acetone extractable content in the emulsion-polymerized rubbers is determined in conformity with JIS K 6350.