mhurhangee/ep-ind-claims huggingface dataset:
A docking and charging station for an unmanned aerial vehicle comprising: - a housing configured to be clamped onto a conductor of an overhead power line, - a power harvesting section for harvesting power from the electromagnetic field surrounding the conductor, - a power supply unit that receives power from said power harvesting unit, - a communication module, and - a docking port arranged underneath the housing, for receiving and docking a docking and charging unit extending upwardly from an UAV, said docking port and said docking unit providing an electrical connection for charging a docked UAV, wherein the power harvesting section comprises a plurality of current transformer units each having its own a short-circuiting shunt, rectification circuit, and smoothing capacitor, and which are parallel connected to a common power supply output, and wherein a secondary winding of each current transformer is configured to be shortcircuited a current shunt when not needed, and wherein the DC power output connection of each rectifier of the current transformer unit(s) is connected in parallel. - a housing configured to be clamped onto a conductor of an overhead power line, - a power harvesting section for harvesting power from the electromagnetic field surrounding the conductor, - a power supply unit that receives power from said power harvesting unit, - a communication module, and - a docking port arranged underneath the housing, for receiving and docking a docking and charging unit extending upwardly from an UAV, said docking port and said docking unit providing an electrical connection for charging a docked UAV,
A method for random access, for a base station, and comprising: transmitting target indication information for indicating a ratio of target demodulation reference signals, DRSs, to a terminal, wherein the ratio of DRSs is a percentage value of a duration corresponding to DRSs within a preset period to a total duration of the preset period, the target indication information enabling the terminal to determine a target listen before talk, LBT, mode corresponding to the ratio of target DRSs based on a correspondence between ratios of DRSs and LBT modes predefined in a protocol, and to transmit a physical random access channel, PRACH, for uplink random access to the base station through the target LBT mode; wherein transmitting the target indication information to the terminal comprises: transmitting the target indication information to the terminal through a synchronous signaling block, SSB, and a remaining minimum system information, RMSI, wherein the target indication information comprises two bits, one of the two bits is a bit in the SSB used to indicate a subcarrier spacing before and another of the two bits is an unused bit in the RMSI. transmitting target indication information for indicating a ratio of target demodulation reference signals, DRSs, to a terminal, wherein the ratio of DRSs is a percentage value of a duration corresponding to DRSs within a preset period to a total duration of the preset period, the target indication information enabling the terminal to determine a target listen before talk, LBT, mode corresponding to the ratio of target DRSs based on a correspondence between ratios of DRSs and LBT modes predefined in a protocol, and to transmit a physical random access channel, PRACH, for uplink random access to the base station through the target LBT mode; wherein transmitting the target indication information to the terminal comprises: transmitting the target indication information to the terminal through a synchronous signaling block, SSB, and a remaining minimum system information, RMSI, wherein the target indication information comprises two bits, one of the two bits is a bit in the SSB used to indicate a subcarrier spacing before and another of the two bits is an unused bit in the RMSI.
Axle play testing device for testing the axle play of a vehicle, preferably a truck, comprising a support for a tyre of the vehicle, a bearing for the support, and at least one hydraulic cylinder connected or connectable to a hydraulic unit for the purpose of moving the support, at least one pressure accumulator for directly actuating the hydraulic cylinder, and a valve, which is arranged between the pressure accumulator and the hydraulic cylinder, characterised in that the valve is arranged directly in front of the hydraulic cylinder. preferably a truck, comprising a support for a tyre of the vehicle, a bearing for the support, and at least one hydraulic cylinder connected or connectable to a hydraulic unit for the purpose of moving the support, at least one pressure accumulator for directly actuating the hydraulic cylinder, and a valve, which is arranged between the pressure accumulator and the hydraulic cylinder, characterised in that the valve is arranged directly in front of the hydraulic cylinder.
A positive electrode material comprising: a positive electrode active material; and a first solid electrolyte material; wherein where a volume ratio of the positive electrode active material and the first solid electrolyte material is represented by v: 100-v, 30 ≤ v ≤ 95 is satisfied, and the first solid electrolyte material is a compound represented by the compositional formula Li a Me b Y c X 6; wherein a + mb + 3c = 6 and c > 0; Me is any of Mg, Ca, Sr, Ba, Zn, Sc, Al, Ga, Bi, Zr, Hf, Ti, Sn, Ta, and Nb or a mixture thereof; m is the valence of Me; and X is at least one selected from the group consisting of Cl, Br, and I. a positive electrode active material; and a first solid electrolyte material; wherein where a volume ratio of the positive electrode active material and the first solid electrolyte material is represented by v: 100-v, 30 ≤ v ≤ 95 is satisfied, and the first solid electrolyte material is a compound represented by the compositional formula Li a Me b Y c X 6; wherein a + mb + 3c = 6 and c > 0; Me is any of Mg, Ca, Sr, Ba, Zn, Sc, Al, Ga, Bi, Zr, Hf, Ti, Sn, Ta, and Nb or a mixture thereof; m is the valence of Me; and X is at least one selected from the group consisting of Cl, Br, and I.
A method of producing a fermented malt beverage, comprising performing cross-flow filtration of fermented liquid containing malt as a raw material, wherein the cross-flow filtration is performed through a monolithic ceramic membrane filter disposed apart from a flow path of the fermented liquid, including a slit having an opening in its side surface, and having a membrane pore size of 0.6 μm or more and 0.9 μm or less, and the fermented liquid contains silica gel having a drying loss of 40% or more, said drying loss being measured according to ISO 787-2: 1981 (JIS K 5101-15-1: 2004) wherein the cross-flow filtration is performed through a monolithic ceramic membrane filter disposed apart from a flow path of the fermented liquid, including a slit having an opening in its side surface, and having a membrane pore size of 0.6 μm or more and 0.9 μm or less, and the fermented liquid contains silica gel having a drying loss of 40% or more, said drying loss being measured according to ISO 787-2: 1981 (JIS K 5101-15-1: 2004)
A system, comprising: a header, the header comprising: a reel assembly comprising at least one reel; plural carrier arms coupled to the reel; and plural cylinders coupled to the plural carrier arms and configured to move the plural carrier arms; and a control system, characterised in that the control system comprises: a first sensor configured to measure a rotational speed of the reel; a second sensor configured to measure a force opposing rotation of the reel; and a computing system configured to: determine a target load for the reel based on first signals from the first and second sensors (66, 68) and a first input; and cause movement of the reel to adjust the height of the reel according to the target load based on a change in load on the reel by actuating the plural actuators. a header, the header comprising: a reel assembly comprising at least one reel; plural carrier arms coupled to the reel; and plural cylinders coupled to the plural carrier arms and configured to move the plural carrier arms; and a reel assembly comprising at least one reel; plural carrier arms coupled to the reel; and plural cylinders coupled to the plural carrier arms and configured to move the plural carrier arms; and a control system, characterised in that the control system comprises: a first sensor configured to measure a rotational speed of the reel; a second sensor configured to measure a force opposing rotation of the reel; and a computing system configured to: determine a target load for the reel based on first signals from the first and second sensors (66, 68) and a first input; and cause movement of the reel to adjust the height of the reel according to the target load based on a change in load on the reel by actuating the plural actuators. a first sensor configured to measure a rotational speed of the reel; a second sensor configured to measure a force opposing rotation of the reel; and a computing system configured to: determine a target load for the reel based on first signals from the first and second sensors (66, 68) and a first input; and cause movement of the reel to adjust the height of the reel according to the target load based on a change in load on the reel by actuating the plural actuators. determine a target load for the reel based on first signals from the first and second sensors (66, 68) and a first input; and cause movement of the reel to adjust the height of the reel according to the target load based on a change in load on the reel by actuating the plural actuators.
Electrical device, in particular an inverter or a converter, wherein the electrical device comprises a first and a second printed circuit board (3, 4), wherein the first printed circuit board comprises protruding tab regions, wherein a respective tab region protrudes into a respective cutout in the second printed circuit board, wherein contact pins, in particular one or more plug-in connector parts, mounted in the first printed circuit board protrude into holes in the second printed circuit board, characterized in that the cross-section of the respective cutout, which cross-section is located in the printed circuit board plane of the second printed circuit board, has four straight edge portions which are connected via semicircular edge portions. wherein the electrical device comprises a first and a second printed circuit board (3, 4), wherein the first printed circuit board comprises protruding tab regions, wherein a respective tab region protrudes into a respective cutout in the second printed circuit board, wherein contact pins, in particular one or more plug-in connector parts, mounted in the first printed circuit board protrude into holes in the second printed circuit board, characterized in that the cross-section of the respective cutout, which cross-section is located in the printed circuit board plane of the second printed circuit board, has four straight edge portions which are connected via semicircular edge portions.
A device for disintegrating particles of a suspension with ultrasonic sound, the device comprising: - a channel for a suspension, wherein the channel comprises a particle-processing portion, - at least one pump configured and arranged to adjust a flow velocity of the suspension in the channel, - at least one ultrasonic sound source, arranged such at the channel that an ultrasonic field generated by the ultrasonic sound source extends at least in the particle-processing portion inside the channel, wherein the device is configured such that particles of the suspension are arrangeable in a predefined spatial particle distribution in the particle-processing portion of the channel by adjusting the flow velocity of the suspension with respect to an inertial force acting on the suspension, wherein the inertial force is gravity or a centrifugal force, characterized in that the device comprises a plasma source, wherein the plasma source is arranged such that a plasma generated by the plasma source extends into the particle-processing portion or upstream of the particle-processing portion. - a channel for a suspension, wherein the channel comprises a particle-processing portion, - at least one pump configured and arranged to adjust a flow velocity of the suspension in the channel, - at least one ultrasonic sound source, arranged such at the channel that an ultrasonic field generated by the ultrasonic sound source extends at least in the particle-processing portion inside the channel, wherein the device is configured such that particles of the suspension are arrangeable in a predefined spatial particle distribution in the particle-processing portion of the channel by adjusting the flow velocity of the suspension with respect to an inertial force acting on the suspension, wherein the inertial force is gravity or a centrifugal force, characterized in that the device comprises a plasma source, wherein the plasma source is arranged such that a plasma generated by the plasma source extends into the particle-processing portion or upstream of the particle-processing portion.
Follicle-stimulating hormone ligand which potentiates the bioactivity of FSH and of chorionic gonadotropin, characterized in that said ligand is a monoclonal antibody or a fragment thereof and in that: the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSDFG (SEQ ID NO: 5); - VH-CDR2, defined by the sequence ISSGSSTR (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARSYDGYHVPSFAY (SEQ ID NO: 7); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QNIVHSNGNTY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence RVS; - VL-CDR3, defined by the sequence FQGSHVPLT (SEQ ID NO: 9). the heavy chain variable domain contains the following CDRs: - VH-CDR1, defined by the sequence GFTFSDFG (SEQ ID NO: 5); - VH-CDR2, defined by the sequence ISSGSSTR (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARSYDGYHVPSFAY (SEQ ID NO: 7); and - VH-CDR1, defined by the sequence GFTFSDFG (SEQ ID NO: 5); - VH-CDR2, defined by the sequence ISSGSSTR (SEQ ID NO: 6); - VH-CDR3, defined by the sequence ARSYDGYHVPSFAY (SEQ ID NO: 7); and the light chain variable domain contains the following CDRs: - VL-CDR1, defined by the sequence QNIVHSNGNTY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence RVS; - VL-CDR3, defined by the sequence FQGSHVPLT (SEQ ID NO: 9). - VL-CDR1, defined by the sequence QNIVHSNGNTY (SEQ ID NO: 8); - VL-CDR2, defined by the sequence RVS; - VL-CDR3, defined by the sequence FQGSHVPLT (SEQ ID NO: 9).
A method for the continuous production of rigid pipes, particularly for building or hydraulic use, comprising in sequence the steps of: - extruding at least one polymeric material to obtain a continuous tubular element with an outer surface and an inner surface; - cooling the continuous tubular element; - cutting the cooled continuous tubular element to obtain a plurality of finished rigid pipes; wherein said step of cooling the continuous tubular element is accomplished by cooling at the same time both the inner surface and the outer surface thereof, so as to obtain the homogeneous cooling of the two surfaces (6, 7); wherein the cooling of the inner surface of the continuous tubular element is accomplished by spraying thereon drops of a cooling liquid having an average diameter lower than 250 μm; wherein the quantity of cooling liquid is sprayed so as to evaporate once in contact with said inner surface without being accumulated in liquid form inside the continuous tubular element, so that said inner surface is substantially dry upon said cutting of the continuous tubular element without using water suction means therein. - extruding at least one polymeric material to obtain a continuous tubular element with an outer surface and an inner surface; - cooling the continuous tubular element; - cutting the cooled continuous tubular element to obtain a plurality of finished rigid pipes;
A memory card comprising: a receive antenna and a transmit antenna; a host interface for electrical connection to a host device; and a smartcard controller coupled to the host interface for receiving power from the host device wherein the smartcard controller includes load modulation circuitry for half duplex communication by creating at least one frequency sideband about a carrier frequency of an interrogating RF field; the memory card comprising: an amplifier configured to receive a signal from the receive antenna when the receive antenna is inductively coupled at the receive antenna to another device by the interrogating RF field, the amplifier providing a simplex communication path from the receive antenna to the smartcard controller; characterized in that the memory card comprises: an active transmit circuit coupled between the smartcard controller and the transmit antenna that in operation forms a signal that mimics the at least one of the frequency sideband and wherein the signal drives the transmit antenna. a receive antenna and a transmit antenna; a host interface for electrical connection to a host device; and a smartcard controller coupled to the host interface for receiving power from the host device wherein the smartcard controller includes load modulation circuitry for half duplex communication by creating at least one frequency sideband about a carrier frequency of an interrogating RF field; the memory card comprising: an amplifier configured to receive a signal from the receive antenna when the receive antenna is inductively coupled at the receive antenna to another device by the interrogating RF field, the amplifier providing a simplex communication path from the receive antenna to the smartcard controller; characterized in that the memory card comprises: an active transmit circuit coupled between the smartcard controller and the transmit antenna that in operation forms a signal that mimics the at least one of the frequency sideband and wherein the signal drives the transmit antenna. an amplifier configured to receive a signal from the receive antenna when the receive antenna is inductively coupled at the receive antenna to another device by the interrogating RF field, the amplifier providing a simplex communication path from the receive antenna to the smartcard controller; characterized in that the memory card comprises: an active transmit circuit coupled between the smartcard controller and the transmit antenna that in operation forms a signal that mimics the at least one of the frequency sideband and wherein the signal drives the transmit antenna. an active transmit circuit coupled between the smartcard controller and the transmit antenna that in operation forms a signal that mimics the at least one of the frequency sideband and wherein the signal drives the transmit antenna.
A method for injection molding an expanding crosslinking polymer part, the method comprising: injecting molten expanding crosslinking polymer into a mold cavity; measuring at least one non-time dependent variable during the injection mold cycle; commencing a hold profile for the expanding crosslinking polymer part; and upon completing the hold profile, ejecting the part from the mold cavity, wherein commencing the hold profile comprises: upon the measured at least one non-time dependent variables reaching a first threshold value, commencing the hold profile; restricting additional molten expanding crosslinking polymer from being injected into the mold cavity; and upon the measured at least one non-time dependent variables reaching a second threshold value, terminating the hold profile characterized in that the measured at least one non-time dependent variable comprises a cavity pressure value, wherein the second threshold value comprises a substantially constant cavity pressure value over a period of time; and/or the measured at least one non-time dependent variable comprises a temperature value, wherein the second threshold value comprises a substantially constant cavity temperature value over a period of time. injecting molten expanding crosslinking polymer into a mold cavity; measuring at least one non-time dependent variable during the injection mold cycle; commencing a hold profile for the expanding crosslinking polymer part; and upon completing the hold profile, ejecting the part from the mold cavity, wherein commencing the hold profile comprises: upon the measured at least one non-time dependent variables reaching a first threshold value, commencing the hold profile; restricting additional molten expanding crosslinking polymer from being injected into the mold cavity; and upon the measured at least one non-time dependent variables reaching a second threshold value, terminating the hold profile characterized in that the measured at least one non-time dependent variable comprises a cavity pressure value, wherein the second threshold value comprises a substantially constant cavity pressure value over a period of time; and/or the measured at least one non-time dependent variable comprises a temperature value, wherein the second threshold value comprises a substantially constant cavity temperature value over a period of time. upon the measured at least one non-time dependent variables reaching a first threshold value, commencing the hold profile; restricting additional molten expanding crosslinking polymer from being injected into the mold cavity; and upon the measured at least one non-time dependent variables reaching a second threshold value, terminating the hold profile characterized in that the measured at least one non-time dependent variable comprises a cavity pressure value, wherein the second threshold value comprises a substantially constant cavity pressure value over a period of time; and/or the measured at least one non-time dependent variable comprises a temperature value, wherein the second threshold value comprises a substantially constant cavity temperature value over a period of time.
An apparatus for supplying current from a power source to each phase (A, B, C) of a multi-phase motor comprising: a switching array interconnecting the power source and each phase (A, B, C) of the multi-phase motor; a current sensor for sensing current supplied from the power source via the switching array (108; Q1-Q6) to the motor; and a controller for generating pulse width modulated signals for controlling the switching array (Q1-Q6) to supply power to each of the phases (A, B, C) of the motor; wherein the PWM signals supplied by the controller to the switching array (Q1-Q6) to supply power to each of the phases (A, B, C) is offset a preset amount from each of the PWM signals supplied by the controller to the switching array (Q1-Q6) to supply power to each of the other phases (A, B, C). a switching array interconnecting the power source and each phase (A, B, C) of the multi-phase motor; a current sensor for sensing current supplied from the power source via the switching array (108; Q1-Q6) to the motor; and a controller for generating pulse width modulated signals for controlling the switching array (Q1-Q6) to supply power to each of the phases (A, B, C) of the motor; wherein the PWM signals supplied by the controller to the switching array (Q1-Q6) to supply power to each of the phases (A, B, C) is offset a preset amount from each of the PWM signals supplied by the controller to the switching array (Q1-Q6) to supply power to each of the other phases (A, B, C).