mhurhangee/ep-ind-claims huggingface dataset:
A method for charging a battery of an electric vehicle, comprising: transmitting a charging initiation request from a charging apparatus to an electricity meter of a charging station to which electric power is supplied for charging the battery, the charging initiation request including a charging identifier for identifying a user; receiving with the charging apparatus a charging initiation response in response to the charging initiation request from the electricity meter, the charging initiation response including a meter identifier for identifying the electricity meter and the charging identifier; performing charging with the charging apparatus by connecting the charging station with the battery after receiving the charging initiation response; transmitting from the charging apparatus a charging completion message indicating electric power provided for charging to the electricity meter upon completion of the charging, the charging completion message including the charging identifier and the meter identifier; and receiving with the charging apparatus charging information indicating billing information according to the charging of the battery from the electricity meter. transmitting a charging initiation request from a charging apparatus to an electricity meter of a charging station to which electric power is supplied for charging the battery, the charging initiation request including a charging identifier for identifying a user; receiving with the charging apparatus a charging initiation response in response to the charging initiation request from the electricity meter, the charging initiation response including a meter identifier for identifying the electricity meter and the charging identifier; performing charging with the charging apparatus by connecting the charging station with the battery after receiving the charging initiation response; transmitting from the charging apparatus a charging completion message indicating electric power provided for charging to the electricity meter upon completion of the charging, the charging completion message including the charging identifier and the meter identifier; and receiving with the charging apparatus charging information indicating billing information according to the charging of the battery from the electricity meter.
An apparatus comprising: a wireless communication chipset including an in-phase and quadrature modulator (420, 902), the wireless communication chipset configured to modulate, via the in-phase and quadrature modulator (420, 902), a first signal based on a first modulation type, being a predetermined radar modulation, the first signal comprising a radar signal; and a controller configured to: select the first modulation type to enable detection of a target that reflects the modulated first signal; and characterised in that the controller is configured to cause the in-phase and quadrature modulator (420, 902) to modulate communication data onto the radar signal to enable the radar signal to be used for wireless communication or radar sensing by another apparatus. a wireless communication chipset including an in-phase and quadrature modulator (420, 902), the wireless communication chipset configured to modulate, via the in-phase and quadrature modulator (420, 902), a first signal based on a first modulation type, being a predetermined radar modulation, the first signal comprising a radar signal; and a controller configured to: select the first modulation type to enable detection of a target that reflects the modulated first signal; and characterised in that the controller is configured to cause the in-phase and quadrature modulator (420, 902) to modulate communication data onto the radar signal to enable the radar signal to be used for wireless communication or radar sensing by another apparatus.
Grid-like packing element, in particular for mass transfer and/or heat exchange columns which are passed through by a gas and/or liquid flow, having outer rods (2, 3, 5) forming the outer contour of the packing element and inner rods arranged inside the packing element, wherein the packing element has a shape resembling an ellipsoid and has at least two circumferential outer rods (2, 3) which are arranged at a distance from one another and are arranged perpendicularly with respect to other outer rods, characterized in that the packing element has two partial regions (8, 10) of an approximate rotational ellipsoid and has a cylindrical region arranged between the two partial regions (8, 10), and one of the at least two circumferential outer rods (2, 3) is arranged at the crossover from the respective partial region (8, 10) having the form of an approximate rotational ellipsoid to the cylindrical region arranged between the partial regions (8, 10).
An electrode, which comprises: (a) an electrode active material; (b) composite particles consisting of (i) conductive polymer particles and (ii) conductive inorganic nanoparticles having a higher conductivity as compared to the conductive polymer, wherein the (i) conductive polymer and the (ii) conductive inorganic particles are used in a weight ratio of 50∼99.9:0.01-50, wherein the conductive inorganic nanoparticles are distributed onto a surface of the conductive polymer particles and/or inside the conductive polymer particles, wherein the composite particle has a diameter of 100∼1000 nm; (c) a non-conductive binder; and (d) a conductive agent, characterized in that the (a) electrode active material is activated carbon, and the (b) composite particles are distributed among the (a) electrode active material particles. (a) an electrode active material; (b) composite particles consisting of (i) conductive polymer particles and (ii) conductive inorganic nanoparticles having a higher conductivity as compared to the conductive polymer, wherein the (i) conductive polymer and the (ii) conductive inorganic particles are used in a weight ratio of 50∼99.9:0.01-50, wherein the conductive inorganic nanoparticles are distributed onto a surface of the conductive polymer particles and/or inside the conductive polymer particles, wherein the composite particle has a diameter of 100∼1000 nm; (c) a non-conductive binder; and (d) a conductive agent,
A wind turbine rotor blade section comprising an airfoil profile between a leading edge and a trailing edge, the rotor blade section comprising: a first structural member supporting the airfoil profile; the airfoil profile comprising a trailing edge region spaced from the first structural member in a chordwise direction; characterised in that: a portion of the trailing edge region of the airfoil profile is configured to buckle benignly and the trailing edge does not experience plastic deformation, in use, when the rotor blade section is subjected to extreme reverse edgewise loading. a first structural member supporting the airfoil profile; the airfoil profile comprising a trailing edge region spaced from the first structural member in a chordwise direction; characterised in that: a portion of the trailing edge region of the airfoil profile is configured to buckle benignly and the trailing edge does not experience plastic deformation, in use, when the rotor blade section is subjected to extreme reverse edgewise loading. a portion of the trailing edge region of the airfoil profile is configured to buckle benignly and the trailing edge does not experience plastic deformation, in use, when the rotor blade section is subjected to extreme reverse edgewise loading.
An apparatus for providing a random early detection, RED, in a packet switched network, said apparatus comprising: - a dequeue counter which is incremented upon each dequeue of a data packet from a queue, Q, and which is reset upon each enqueue of a data packet into said queue, Q; - a coefficient memory table, CMT, which stores plurality of decay coefficients, C; and - a calculation unit which is adapted to calculate, upon each enqueue of a data packet in said queue, Q, an average queue size, AQS, of said queue, Q, depending on a decay coefficient, C, wherein the decay coefficient is read from a memory address of said coefficient memory table, CMT, to which said dequeue counter points before said dequeue counter is reset. - a dequeue counter which is incremented upon each dequeue of a data packet from a queue, Q, and which is reset upon each enqueue of a data packet into said queue, Q; - a coefficient memory table, CMT, which stores plurality of decay coefficients, C; and - a calculation unit which is adapted to calculate, upon each enqueue of a data packet in said queue, Q, an average queue size, AQS, of said queue, Q, depending on a decay coefficient, C, wherein the decay coefficient is read from a memory address of said coefficient memory table, CMT, to which said dequeue counter points before said dequeue counter is reset.
A method of packaging a composition comprising glucocerebrosidase wherein said method comprises contacting the GCB with an inert gas to reduce the amount of reactive species, and introducing the GCB and said inert gas into a gas tight container, wherein the resulting headspace is at least 90% (vol/vol) of said inert gas, wherein the pH of the composition is in the range of 5.0 to 6.0, and wherein the composition further comprises a carbohydrate in an amount sufficient to maintain the stability of GCB, and wherein the carbohydrate is sucrose.
Use of a device comprising: i) a composite material comprising a plurality of conductive or semiconductive nanotubes aligned relative to one another, and a matrix arranged between these nanotubes; said composite material being in the form of an isoporous membrane whose nanopores correspond to the pores of the nanotubes, and optionally to the pores of the filler matrix; and ii) means allowing said composite material to be subjected to an electric field, to prevent, reduce and/or eliminate the fouling on the surface, at and in the pores of said composite material. i) a composite material comprising a plurality of conductive or semiconductive nanotubes aligned relative to one another, and a matrix arranged between these nanotubes; said composite material being in the form of an isoporous membrane whose nanopores correspond to the pores of the nanotubes, and optionally to the pores of the filler matrix; and ii) means allowing said composite material to be subjected to an electric field,
Process for preparing dimethylaminoalkyl (meth)acrylate, wherein a mixture comprising (a) alkyl (meth)acrylate, (b) dimethylaminoalkanol and (c) a catalyst system comprising a solution of a lithium alkoxide in alcohol is reacted, the method being characterized in that catalyst system contains no alkaline earth metal compounds.
A method for the optical characterization of at least one particle present in a sample, comprising: - the illumination of said sample using a light beam, the sample being positioned in the object space of an optical system; - the acquisition of at least one phase image and at least one intensity image of said at least one particle illuminated by the light beam, the acquisition being carried out in an analysis plane arranged in the image space of the optical system; - the calculation of a combined image from said at least one phase image and said at least one intensity image, said combined image being obtained from the normalized complex transmission, the real part of the normalized complex transmission or the imaginary part of the normalized complex transmission; wherein the method is characterized in that it further comprises: - the summation of points of said combined image over a given field of the combined image comprising an image of said at least one particle; - the determination of at least one optical property of said at least one particle from said sum, said at least one optical property comprising at least one of the complex dipolar polarizability, the effective absorption cross section, the effective scattering cross section, the effective extinction cross section. - the illumination of said sample using a light beam, the sample being positioned in the object space of an optical system; - the acquisition of at least one phase image and at least one intensity image of said at least one particle illuminated by the light beam, the acquisition being carried out in an analysis plane arranged in the image space of the optical system; - the calculation of a combined image from said at least one phase image and said at least one intensity image, said combined image being obtained from the normalized complex transmission, the real part of the normalized complex transmission or the imaginary part of the normalized complex transmission; wherein the method is characterized in that it further comprises: - the summation of points of said combined image over a given field of the combined image comprising an image of said at least one particle; - the determination of at least one optical property of said at least one particle from said sum, said at least one optical property comprising at least one of the complex dipolar polarizability, the effective absorption cross section, the effective scattering cross section, the effective extinction cross section. - the summation of points of said combined image over a given field of the combined image comprising an image of said at least one particle; - the determination of at least one optical property of said at least one particle from said sum, said at least one optical property comprising at least one of the complex dipolar polarizability, the effective absorption cross section, the effective scattering cross section, the effective extinction cross section.
A driving apparatus comprising a generator-motor, a drive motor, a driving apparatus case for containing the generator-motor and the drive motor, a first inverter for operating one of the generator-motor and the drive motor, a second inverter for operating other of the generator-motor and the drive motor, a first lead wire (L MU, L MV, L MW) for connecting one of the generator-motor and the drive motor to the first inverter and a second lead wire (L GU, L GV, L GW) for connecting other of the generator-motor and the drive motor to the second inverter, characterized in that each of the first and the second lead wires (L MU, L MV, L MW, L GU, L GV, L GW) is taken out from one end side in an axial direction of each of the generator-motor and the drive motor.
A method for processing an input audio signal, comprising: analyzing a signal envelope of the input audio signal to identify a continuous component of the input audio signal from a transient component of the input audio signal; decorrelating the continuous component to generate a decorrelated continuous signal; passing the transient component to an output stage; and combining the transient component and the decorrelated continuous signal in the output stage to generate an output signal. analyzing a signal envelope of the input audio signal to identify a continuous component of the input audio signal from a transient component of the input audio signal; decorrelating the continuous component to generate a decorrelated continuous signal; passing the transient component to an output stage; and combining the transient component and the decorrelated continuous signal in the output stage to generate an output signal.
An oral composition, wherein the composition is formulated as a toothpaste, and the composition comprises: Nigella sativa seed oil, an additional antibacterial agent selected from zinc ions, wherein the zinc ions are provided by zinc oxide, and an orally acceptable carrier.
A table saw comprising: a rotatable blade adapted to raise and lower, where the blade is mounted on an arbor; an arbor block adapted to hold the arbor, and further adapted to retract the arbor and blade upon the occurrence of a specified event; a detection system and a reaction system associated with the detection system and the rotatable blade, where the reaction system includes a retraction mechanism, the table saw being characterized in that: the rotatable blade is electrically conductive, electrically isolated from electrical ground and is adapted to raise and lower around a pivot point, and in that the detection system is adapted to detect contact between a person and the rotatable blade, where the detection system is adapted to capacitively impart an electric signal on the rotatable blade and to detect the occurrence of a change in the electric signal on the rotatable blade, and in that the reaction system is adapted to pivot the rotatable blade about the pivot point away from the cutting region after detection of contact between the person and the rotatable blade by the detection system. a rotatable blade adapted to raise and lower, where the blade is mounted on an arbor; an arbor block adapted to hold the arbor, and further adapted to retract the arbor and blade upon the occurrence of a specified event; a detection system and a reaction system associated with the detection system and the rotatable blade, where the reaction system includes a retraction mechanism, the rotatable blade is electrically conductive, electrically isolated from electrical ground and is adapted to raise and lower around a pivot point, and in that the detection system is adapted to detect contact between a person and the rotatable blade, where the detection system is adapted to capacitively impart an electric signal on the rotatable blade and to detect the occurrence of a change in the electric signal on the rotatable blade, and in that the reaction system is adapted to pivot the rotatable blade about the pivot point away from the cutting region after detection of contact between the person and the rotatable blade by the detection system.
An appliance latch assembly for latching a door comprising: a housing providing an aperture for receiving a strike from a first direction and holding: an electric motor; a strike grip movable by the electric motor between an outward unlock position toward the first direction along an axis and an inward locked position away from the first direction; the strike grip providing at least one spring-biased element, the spring-biased element being movable when the strike grip is in the outward unlock position to receive and releasably retain the strike in response to a manually applied engagement force from the first direction and to release the strike in response to a manually applied disengagement force opposite the first direction; and a strike grip lock blocking movement of the spring-biased element to release the strike in response to the manually applied force opposite the first direction when the strike grip is in the inward locked position, wherein the at least one spring-biased element is two opposed jaws spring-biased to close about the strike when the strike is received therebetween, wherein the strike grip lock is a collar surrounding the jaws preventing them from opening to release the strike when the strike grip is in the inward locked position; characterized in that the strike grip lock floats axially to move with the strike grip. an electric motor; a strike grip movable by the electric motor between an outward unlock position toward the first direction along an axis and an inward locked position away from the first direction; the strike grip providing at least one spring-biased element, the spring-biased element being movable when the strike grip is in the outward unlock position to receive and releasably retain the strike in response to a manually applied engagement force from the first direction and to release the strike in response to a manually applied disengagement force opposite the first direction; and a strike grip lock blocking movement of the spring-biased element to release the strike in response to the manually applied force opposite the first direction when the strike grip is in the inward locked position, wherein the at least one spring-biased element is two opposed jaws spring-biased to close about the strike when the strike is received therebetween, wherein the strike grip lock is a collar surrounding the jaws preventing them from opening to release the strike when the strike grip is in the inward locked position; characterized in that the strike grip lock floats axially to move with the strike grip.
An inkjet head, comprising: a piezoelectric member comprising alternately a plurality of first grooves and a plurality of second grooves respectively constituted by a pair of side surfaces and a bottom surface on a surface of the piezoelectric member; a nozzle plate configured to block the surface of the piezoelectric member on which a nozzle is arranged at least in accordance with the position of each first groove; an ink chamber configured to communicate with each first groove to supply ink; a first electrode arranged on at least one of a pair of the side surfaces of each first groove; a second electrode arranged on the side surface to face each first electrode across the piezoelectric member of each second groove; and a driving circuit comprising a plurality of first drivers that is arranged for each first electrode and configured to input a common first driving waveform to each first electrode, and a plurality of second drivers that is arranged for each second electrode and configured to input a second driving waveform of each second electrode corresponding to print data to each second electrode, wherein the first electrode is formed over a pair of side surfaces constituting each first groove; the second electrodes are separately formed on the side surfaces of a pair of the second grooves adjacent to each first groove, each of which is opposite to the first electrode across the piezoelectric member; the inkjet head is characterised in that each second groove is constituted as a gap into which no ink flows. a piezoelectric member comprising alternately a plurality of first grooves and a plurality of second grooves respectively constituted by a pair of side surfaces and a bottom surface on a surface of the piezoelectric member; a nozzle plate configured to block the surface of the piezoelectric member on which a nozzle is arranged at least in accordance with the position of each first groove; an ink chamber configured to communicate with each first groove to supply ink; a first electrode arranged on at least one of a pair of the side surfaces of each first groove; a second electrode arranged on the side surface to face each first electrode across the piezoelectric member of each second groove; and a driving circuit comprising a plurality of first drivers that is arranged for each first electrode and configured to input a common first driving waveform to each first electrode, and a plurality of second drivers that is arranged for each second electrode and configured to input a second driving waveform of each second electrode corresponding to print data to each second electrode, wherein the first electrode is formed over a pair of side surfaces constituting each first groove; the second electrodes are separately formed on the side surfaces of a pair of the second grooves adjacent to each first groove, each of which is opposite to the first electrode across the piezoelectric member; the inkjet head is characterised in that each second groove is constituted as a gap into which no ink flows.