mhurhangee/ep-ind-claims huggingface dataset:
A system for assigning a unique number to a cell module controller, the system comprising: N cell module controllers (111... 11N),CMCs, connected to one or more battery modules, respectively, and configured to store assigned unique numbers, N being an integer equal to 2 or more; N resistor units (121... 12N), each connected to one CMC so that each CMC is connected to one resistor unit; and a main battery management system,BMS, configured to apply unique number assignment signals to the N resistor units,, and wherein each CMC includes a control unit (111a...11Na) configured to receive and store the unique number assignment signal from the corresponding resistor unit, a communication unit (111b―11Nb) configured to perform wired/wireless communication with the main BMS and transmit state information of the battery module acquired from the corresponding CMCs and the voltage values of the unique number assignment signals stored in the control unit; the main BMS being configured to assign the unique numbers to the N CMCs based on the voltage values of the unique number assignment signals stored in the control units of the CMCs, and each resistor unit includes a first resistor (121a... 12Na) configured to reduce the voltage values of the unique number assignment signal by a specific value so as to make the voltage values of the unique number assignment signals different to one another, and a second resistor (121b... 12Nb) configured to reduce the voltage values of the unique number assignment signal, which is reduced by the specific value to magnitudes allowable by the corresponding control unit. N cell module controllers (111... 11N),CMCs, connected to one or more battery modules, respectively, and configured to store assigned unique numbers, N being an integer equal to 2 or more; N resistor units (121... 12N), each connected to one CMC so that each CMC is connected to one resistor unit; and a main battery management system,BMS, configured to apply unique number assignment signals to the N resistor units,, and wherein each CMC includes a control unit (111a...11Na) configured to receive and store the unique number assignment signal from the corresponding resistor unit, a communication unit (111b―11Nb) configured to perform wired/wireless communication with the main BMS and transmit state information of the battery module acquired from the corresponding CMCs and the voltage values of the unique number assignment signals stored in the control unit; the main BMS being configured to assign the unique numbers to the N CMCs based on the voltage values of the unique number assignment signals stored in the control units of the CMCs, and each resistor unit includes a first resistor (121a... 12Na) configured to reduce the voltage values of the unique number assignment signal by a specific value so as to make the voltage values of the unique number assignment signals different to one another, and a second resistor (121b... 12Nb) configured to reduce the voltage values of the unique number assignment signal, which is reduced by the specific value to magnitudes allowable by the corresponding control unit.
An adjustment unit, in particular for adjusting a pitch angle of a wind turbine rotor blade, comprising a pivot bearing including at least two coaxial bearing rings (7, 8) that are rotatable with respect to one another, at least one adjustment actuator for rotating the two bearing rings with respect to one another, and a supply unit for supplying the adjustment actuator with energy, wherein the at least one adjustment actuator and the supply unit are disposed on oppositely disposed sides of an adjustment drive carrier part of preferably plate shape or saucer-shape which is directly or indirectly rotatably fixedly connected with one of the bearing rings (7, 8) and has a rotatable common support bearing for rotatably supporting the adjustment actuator, and wherein the supply unit is mounted together with the adjustment actuator rotatably at the carrier part such that the supply unit and the adjustment actuator are rotatable and/or pivotable together with respect to the carrier part without any relative rotation with respect to one another, characterized in that the support bearing comprises a bearing journal that passes through the carrier part and is rotatably supported at the carrier part, with, on the one hand, said adjustment actuator and, on the other hand, the supply unit each being rotatably fixedly supported on the bearing journal at oppositely disposed end sections of said bearing journal.
A welding-type power supply, comprising: power conversion circuitry configured to convert input power to welding-type power having at least one of an alternating current, AC, waveform or a pulse waveform; an interface configured to receive an input representative of a selected frequency of the AC waveform or the pulse waveform; and being characterised by: control circuitry configured to: determine an amperage parameter of the welding-type power; based on the amperage parameter, determine a range of frequencies of the AC waveform or the pulse waveform; control the interface to output an indication of the selected frequency with respect to the determined range of frequencies; and control the power conversion circuitry to output the welding-type power at the selected frequency and based on the amperage parameter. power conversion circuitry configured to convert input power to welding-type power having at least one of an alternating current, AC, waveform or a pulse waveform; an interface configured to receive an input representative of a selected frequency of the AC waveform or the pulse waveform; and being characterised by: control circuitry configured to: determine an amperage parameter of the welding-type power; based on the amperage parameter, determine a range of frequencies of the AC waveform or the pulse waveform; control the interface to output an indication of the selected frequency with respect to the determined range of frequencies; and control the power conversion circuitry to output the welding-type power at the selected frequency and based on the amperage parameter. determine an amperage parameter of the welding-type power; based on the amperage parameter, determine a range of frequencies of the AC waveform or the pulse waveform; control the interface to output an indication of the selected frequency with respect to the determined range of frequencies; and control the power conversion circuitry to output the welding-type power at the selected frequency and based on the amperage parameter.
Electric shaver, comprising a magnetic linear drive unit having first and second drive components (6, 7) adapted to magnetically interact with each other to oscillate relative to each other in a substantially linear manner, a drive train connecting one of said drive components (6, 7) to a working tool, a drive support for supporting said drive unit to a housing or a structural element of the electric shaver, characterized by a magnetic shielding at least partially surrounding the drive unit, wherein said magnetic shielding is formed at least partially by a structural part of said drive train which structural part is made of a material with a magnetic permeability μr > 10 and/or a soft magnetic material and configured to surround the drive unit at sides thereof.
Knotting device for knotting a double twine strand of a bound material, which is led along a lead line in a lead position, with a knotting hook driven so as to rotate around an axis of rotation, a twine guide device, by means of which the twine is guided during a knotting process, and a separation device to cut a finished knotted strand of the bound material, characterised in that the knotting hook is formed as a knotting rod, which is movable during a knotting process by means of a motorised drive in the axial direction along an adjustment path, over the circumferential shape of the knotting rod protrudes an entrainment element to gather and entrain the double twine strand and a groove is formed into the circumferential shape of the knotting rod, which has a shape to receive a section of the double twine strand.
A resin composition comprising: a component A being a polycarbonate resin having 36000 or more and 58000 or less of weight-average molecular weight in polystyrene equivalent; a component B being talc having an average median diameter of 4.6 μm or more and 6.0 μm or less, the content of the component B being 5% or more and 20% or less by weight; a component C being an organic sulfonic acid or an organic sulfonic acid metal salt, the content of the component C being 0.05% or more and 2.0% or less by weight; a component D being a drip inhibitor, the content of the component D being 0.05% or more and 1.0% or less by weight; a component E being a silicone compound; among hydrogen atoms in the silicone compound, the proportion of the hydrogen atoms in phenyl groups being 51% or more and/or the proportion of the hydrogen atoms in hydrogen groups being 22% or more, and the content of the component E being 0.1% or more and 2.0% or less by weight. a component A being a polycarbonate resin having 36000 or more and 58000 or less of weight-average molecular weight in polystyrene equivalent; a component B being talc having an average median diameter of 4.6 μm or more and 6.0 μm or less, the content of the component B being 5% or more and 20% or less by weight; a component C being an organic sulfonic acid or an organic sulfonic acid metal salt, the content of the component C being 0.05% or more and 2.0% or less by weight; a component D being a drip inhibitor, the content of the component D being 0.05% or more and 1.0% or less by weight; a component E being a silicone compound; among hydrogen atoms in the silicone compound, the proportion of the hydrogen atoms in phenyl groups being 51% or more and/or the proportion of the hydrogen atoms in hydrogen groups being 22% or more, and the content of the component E being 0.1% or more and 2.0% or less by weight. among hydrogen atoms in the silicone compound, the proportion of the hydrogen atoms in phenyl groups being 51% or more and/or the proportion of the hydrogen atoms in hydrogen groups being 22% or more, and the content of the component E being 0.1% or more and 2.0% or less by weight.
A method for scale identification comprising: providing a first logging tool comprising a tool body, a neutron source coupled to the tool body, and detectors coupled to the tool body; providing a second logging tool for measuring deviations in inner diameter of a tubing in a wellbore; placing the first logging tool and the second logging tool into the wellbore; logging the interior of the tubing with the first logging tool and the second logging tool to generate data; determining whether an elemental yield is above a nominal value at a location in the tubing where the second logging tool identifies a deviation in the inner diameter of the tubing; and generating a log of scale location and type from the data. providing a first logging tool comprising a tool body, a neutron source coupled to the tool body, and detectors coupled to the tool body; providing a second logging tool for measuring deviations in inner diameter of a tubing in a wellbore; placing the first logging tool and the second logging tool into the wellbore; logging the interior of the tubing with the first logging tool and the second logging tool to generate data; determining whether an elemental yield is above a nominal value at a location in the tubing where the second logging tool identifies a deviation in the inner diameter of the tubing; and generating a log of scale location and type from the data.
A method comprising: disposing a mobile robot assembly proximate to a fuselage of an aircraft that is being assembled and configured to perform work within the fuselage, a left ranging sensor and a right ranging sensor being located on the mobile robot assembly; aligning the left ranging sensor of the assembly with a left target; aligning the right ranging sensor of the assembly with a right target; directing the assembly to traverse to a location within the aircraft fuselage at which a robot on the assembly will perform work upon the fuselage; determining a left distance between the left ranging sensor and the left target while the assembly is moving; determining a right distance between the right ranging sensor and the right target while the assembly is moving; detecting a difference between the determined distances; and adjusting a direction of motion of the assembly based on the difference. disposing a mobile robot assembly proximate to a fuselage of an aircraft that is being assembled and configured to perform work within the fuselage, a left ranging sensor and a right ranging sensor being located on the mobile robot assembly; aligning the left ranging sensor of the assembly with a left target; aligning the right ranging sensor of the assembly with a right target; directing the assembly to traverse to a location within the aircraft fuselage at which a robot on the assembly will perform work upon the fuselage; determining a left distance between the left ranging sensor and the left target while the assembly is moving; determining a right distance between the right ranging sensor and the right target while the assembly is moving; detecting a difference between the determined distances; and adjusting a direction of motion of the assembly based on the difference.
A control circuit for controlling switching between a time-division duplexing transmit mode and a TDD receive mode in a system supporting TDD, the control circuit comprising: a first power detector configured to determine a first power level from a radio source in the downlink direction on a downlink path; a second power detector configured to determine a second power level in the uplink direction on an uplink path; a logic circuit configured to decide switching of the system to TDD transmit mode or TDD receive mode, a receive/transmit comparator coupled to the first power detector, to the second power detector and having an output coupled to the logic circuit, wherein the receive/transmit comparator compares the first power level to the second power level and provides an indication of the result of the comparison to the logic circuit; a transmit power reference; characterized by a second transmit power comparator coupled to the first power detector, to the transmit power reference and having an output coupled to the logic circuit, wherein the second transmit power comparator compares the first power level to a value of the transmit power reference and provides an indication of the result of the comparison to the logic circuit, wherein the logic circuit has a second state in which the first power level exceeds the second power level and the first power level does not exceed the value of said transmit power reference to indicate TDD receive mode, and wherein the logic circuit has a third state in which the first power level exceeds the second power level and the value of said transmit power reference to indicate TDD transmit mode. a first power detector configured to determine a first power level from a radio source in the downlink direction on a downlink path; a second power detector configured to determine a second power level in the uplink direction on an uplink path; a logic circuit configured to decide switching of the system to TDD transmit mode or TDD receive mode, a receive/transmit comparator coupled to the first power detector, to the second power detector and having an output coupled to the logic circuit, wherein the receive/transmit comparator compares the first power level to the second power level and provides an indication of the result of the comparison to the logic circuit; a transmit power reference; characterized by a second transmit power comparator coupled to the first power detector, to the transmit power reference and having an output coupled to the logic circuit, wherein the second transmit power comparator compares the first power level to a value of the transmit power reference and provides an indication of the result of the comparison to the logic circuit, wherein the logic circuit has a second state in which the first power level exceeds the second power level and the first power level does not exceed the value of said transmit power reference to indicate TDD receive mode, and wherein the logic circuit has a third state in which the first power level exceeds the second power level and the value of said transmit power reference to indicate TDD transmit mode.
A method of blockage detection in a wireless transmit receive unit, WTRU, the method comprising: performing a radio link measurement on one or more reference signals; comparing the radio link measurement to a comparing threshold; and indicating a blockage condition in response to the comparing of the radio link measurement meeting a threshold criterion on the comparing threshold, characterized by the method further comprising: starting a timer when a first blockage condition is satisfied; and determining the blockage if the blockage condition is still satisfied after timer expiry. performing a radio link measurement on one or more reference signals; comparing the radio link measurement to a comparing threshold; and indicating a blockage condition in response to the comparing of the radio link measurement meeting a threshold criterion on the comparing threshold, characterized by the method further comprising: starting a timer when a first blockage condition is satisfied; and determining the blockage if the blockage condition is still satisfied after timer expiry. starting a timer when a first blockage condition is satisfied; and determining the blockage if the blockage condition is still satisfied after timer expiry.
A method for selecting queues in a packet router, the method comprising steps of: receiving a data packet from an ingress interface (205, 207, 209); storing an identifier for said ingress interface (205, 207, 209) associated with said received data packet in a flow; directing said received data packet to the flow (211, 213, 215, 217) according to the destination address of said received data packet; and forwarding said directed data packet from said flow (211, 213, 215, 217) to a set of queues (219, 221, 223) associated with said ingress interface (205, 207, 209) according to the stored identifier characterized in that a single flow respectively corresponds to each destination address of received data packets. receiving a data packet from an ingress interface (205, 207, 209); storing an identifier for said ingress interface (205, 207, 209) associated with said received data packet in a flow; directing said received data packet to the flow (211, 213, 215, 217) according to the destination address of said received data packet; and forwarding said directed data packet from said flow (211, 213, 215, 217) to a set of queues (219, 221, 223) associated with said ingress interface (205, 207, 209) according to the stored identifier characterized in that a single flow respectively corresponds to each destination address of received data packets.
A tail rotor blade assembly comprising: a flexbeam; a torque tube defined at least partially around said flexbeam; a retainer mounted to said flexbeam; an elastomeric bearing having an inner race and an outer race defined along an axis, said inner race mounted to said retainer; a backing plate, said backing plate mounted to said outer race, wherein the backing plate comprises: a plate which defines an at least partial annulus having an annulus radial opening about the axis; a motion limiter which extends from said plate generally parallel to said axis; and a redundant pivot which extends from said plate generally parallel to said axis characterized in that said torque tube is located between said backing plate and said outer race and that the plate defines a "C" defining said radial opening. a flexbeam; a torque tube defined at least partially around said flexbeam; a retainer mounted to said flexbeam; an elastomeric bearing having an inner race and an outer race defined along an axis, said inner race mounted to said retainer; a backing plate, said backing plate mounted to said outer race, wherein the backing plate comprises: a plate which defines an at least partial annulus having an annulus radial opening about the axis; a motion limiter which extends from said plate generally parallel to said axis; and a redundant pivot which extends from said plate generally parallel to said axis a plate which defines an at least partial annulus having an annulus radial opening about the axis; a motion limiter which extends from said plate generally parallel to said axis; and a redundant pivot which extends from said plate generally parallel to said axis characterized in that said torque tube is located between said backing plate and said outer race and that the plate defines a "C" defining said radial opening.
A method of applying a permanent coating to a plastic surface of a first part, comprising the steps of: - applying to said plastic surface a layer of a polyamide-based hot-melt material, - maintaining this layer of hot-melt plastic material on said surface for a period of time ranging from a few minutes to several hours, - removing this layer of hot-melt material from this plastic surface; and - applying a permanent coating on said surface, said permanent coating being based on polyurethane, an epoxy resin or polyesters, a polycarbonate and/or an acrylic resin. - applying to said plastic surface a layer of a polyamide-based hot-melt material, - maintaining this layer of hot-melt plastic material on said surface for a period of time ranging from a few minutes to several hours, - removing this layer of hot-melt material from this plastic surface; and - applying a permanent coating on said surface, said permanent coating being based on polyurethane, an epoxy resin or polyesters, a polycarbonate and/or an acrylic resin.
A rigging system for handling at least one component of a windmill, comprising: a base; a carrier operatively connectable to the base; and characterized by a handler (37a, 37b, 237a) releasably connectable with the carrier, comprising: at least one grip for releasably receiving the at least one component of the windmill, the at least one grip comprising at least one foot positionable on the base for supporting the at least one component on a surface thereof; and a bracing operatively connectable to the at least one grip, the bracing receivable by the carrier for transport thereby the handler (37a, 37b, 237a) and the at least one component being transportable by the carrier. a base; a carrier operatively connectable to the base; and characterized by a handler (37a, 37b, 237a) releasably connectable with the carrier, comprising: at least one grip for releasably receiving the at least one component of the windmill, the at least one grip comprising at least one foot positionable on the base for supporting the at least one component on a surface thereof; and a bracing operatively connectable to the at least one grip, the bracing receivable by the carrier for transport thereby the handler (37a, 37b, 237a) and the at least one component being transportable by the carrier.
A method of removing hair from the skin, the method comprising the steps of: a) contacting the skin with a composition comprising a source of cyanate ion, an organic acid or a salt thereof and a peroxide compound; and b) removing said composition from the skin along with entrained hair. a) contacting the skin with a composition comprising a source of cyanate ion, an organic acid or a salt thereof and a peroxide compound; and b) removing said composition from the skin along with entrained hair.