mhurhangee/ep-ind-claims huggingface dataset:
An internal impedance detecting apparatus for detecting an internal impedance of a secondary battery, comprising: a voltage detector for detecting a voltage of said secondary battery; a voltage change detector for detecting a change in the voltage within each of a plurality of detection times, Δt1, Δt2, Δt3, which have respective different time durations and include a common time, Δt1, based on the voltage detected by said voltage detector; a current detector for detecting a current flowing through said secondary battery; a current change detector for detecting a change in the current within each of said detection times, Δt1, Δt2, Δt3, based on the current detected by said current detector; a processor for calculating a plurality of internal impedances by dividing voltage changes detected by said voltage change detector by current changes detected by said current change detector at the same detection times, Δt1, Δt2, Δt3, as the voltage changes; a judging unit for judging whether the internal impedances are reliable or not based on variations of the internal impedances calculated by said processor; and a generator for generating an internal impedance to be output based on the internal impedances only if said judging unit judges that said internal impedances are reliable. a voltage detector for detecting a voltage of said secondary battery; a voltage change detector for detecting a change in the voltage within each of a plurality of detection times, Δt1, Δt2, Δt3, which have respective different time durations and include a common time, Δt1, based on the voltage detected by said voltage detector; a current detector for detecting a current flowing through said secondary battery; a current change detector for detecting a change in the current within each of said detection times, Δt1, Δt2, Δt3, based on the current detected by said current detector; a processor for calculating a plurality of internal impedances by dividing voltage changes detected by said voltage change detector by current changes detected by said current change detector at the same detection times, Δt1, Δt2, Δt3, as the voltage changes; a judging unit for judging whether the internal impedances are reliable or not based on variations of the internal impedances calculated by said processor; and a generator for generating an internal impedance to be output based on the internal impedances only if said judging unit judges that said internal impedances are reliable.
A cross-linked hyaluronic acid thread, obtainable by the process comprising the following steps: a) combining hyaluronic acid and a cross-linking agent in an aqueous composition until the hyaluronic acid is substantially cross-linked to provide a substantially cross-linked composition; b) extruding the substantially cross-linked composition to provide a wet thread; and c) drying the wet thread to provide the cross-linked hyaluronic acid thread. a) combining hyaluronic acid and a cross-linking agent in an aqueous composition until the hyaluronic acid is substantially cross-linked to provide a substantially cross-linked composition; b) extruding the substantially cross-linked composition to provide a wet thread; and c) drying the wet thread to provide the cross-linked hyaluronic acid thread.
An inspection opening device with an inspection opening (SK1.3), wherein the inspection opening device has a bending kit, which is arranged as an attachment to the inspection opening (SK1.3) in a cavity and serves as a fixing aid, wherein components and parts are arranged within the bending kit and are fixed in positions, and wherein preparations for terminal blocks (SK2.2) with protective conductors are formed, wherein the individual components and parts of the bending set are fixed in spatially different regions within the bending set, characterised in that the different regions are high-voltage regions, low-voltage regions or SLV safety extra-low voltage regions, and in that preparations for terminal blocks (SK2.2) with protective conductors are formed.
Fuel injector for injecting fuel into the combustion chamber of an internal combustion engine, wherein the fuel injector comprises a control valve and an injection valve member, wherein the injection valve member delimits a control chamber and is guided in longitudinally movable fashion in the fuel injector and, by means of its movement, opens and shuts off at least one injection opening into the combustion chamber, wherein the control valve controls the pressure in the control chamber, wherein the control valve comprises a magnet assembly, an armature, a valve piece and a valve seat formed on the valve piece, wherein the armature comprises an armature plate, wherein the armature plate is actuatable by the magnet assembly, wherein the armature interacts at least indirectly with the valve seat for the purposes of relieving the control chamber of pressure, wherein a crown ring is braced between the valve piece and the magnet assembly, characterized in that a plate groove is formed in the armature plate, and in that the crown ring has a crown, wherein the crown projects through the plate groove.
An apparatus for controlling an ink flow to a print head, comprising: a pathway between an ink reservoir and a print head and partially formed in a cover of said ink reservoir; a flexible diaphragm positioned to selectively move into and out of a portion of the pathway, wherein in a closed position a front side of the diaphragm forms a seal between an outlet from the ink reservoir and a separate inlet of the pathway to the print head; and a diaphragm control unit comprising a diaphragm actuator positioned on a back side of the diaphragm, characterized in that the diaphragm actuator comprises: a piston having a rounded surface in contact with the diaphragm; and a cam member coupled to a cam end of the piston, the cam member operable to rotate to move the diaphragm between the closed position and an open position. a pathway between an ink reservoir and a print head and partially formed in a cover of said ink reservoir; a flexible diaphragm positioned to selectively move into and out of a portion of the pathway, wherein in a closed position a front side of the diaphragm forms a seal between an outlet from the ink reservoir and a separate inlet of the pathway to the print head; and a diaphragm control unit comprising a diaphragm actuator positioned on a back side of the diaphragm, characterized in that the diaphragm actuator comprises: a piston having a rounded surface in contact with the diaphragm; and a cam member coupled to a cam end of the piston, the cam member operable to rotate to move the diaphragm between the closed position and an open position. a piston having a rounded surface in contact with the diaphragm; and a cam member coupled to a cam end of the piston, the cam member operable to rotate to move the diaphragm between the closed position and an open position.
An implantable device (100, 200) configured for filling and draining an inflatable portion of a gastric band (105, 205), the implantable device comprising: a reservoir (108, 208) for holding a fluid; a sensor (130, 230) positioned between the gastric band and the reservoir, the sensor having a first inlet and a second inlet, the fluid flowing from the first inlet to the second inlet when filling the inflatable portion of the gastric band, the fluid flowing from the second inlet to the first inlet when draining the inflatable portion of the gastric band, the sensor monitoring a parameter of the fluid when filling and draining the inflatable portion of the gastric band; a first flow control device (110, 210), coupled to the first inlet of the sensor, for controlling a flow of the fluid when filling and draining the inflatable portion of the gastric band; and a pumping device (120, 220), coupled between the reservoir and the first flow control device, for moving the fluid into and out of the inflatable portion of the gastric band, the pumping device capable of being activated and deactivated using a telemetric signal received from a remote device, characterized in that the sensor includes two pressure sensors (232, 233) and a calibrated orifice positioned fluidly between the two pressure sensors. a reservoir (108, 208) for holding a fluid; a sensor (130, 230) positioned between the gastric band and the reservoir, the sensor having a first inlet and a second inlet, the fluid flowing from the first inlet to the second inlet when filling the inflatable portion of the gastric band, the fluid flowing from the second inlet to the first inlet when draining the inflatable portion of the gastric band, the sensor monitoring a parameter of the fluid when filling and draining the inflatable portion of the gastric band; a first flow control device (110, 210), coupled to the first inlet of the sensor, for controlling a flow of the fluid when filling and draining the inflatable portion of the gastric band; and a pumping device (120, 220), coupled between the reservoir and the first flow control device, for moving the fluid into and out of the inflatable portion of the gastric band, the pumping device capable of being activated and deactivated using a telemetric signal received from a remote device, characterized in that the sensor includes two pressure sensors (232, 233) and a calibrated orifice positioned fluidly between the two pressure sensors.
A current measuring device (1, 10) that is protected against electrical surges when opening the electric circuit of said device (1, 10), said device (1, 10) comprising a first current transformer, a first connection terminal having connected thereto a first terminal of said first current transformer, a second connection terminal having connected thereto a second terminal of said first current transformer distinct from said first terminal of said first current transformer, a protective resistance having a first terminal connected to said second connection terminal, and a load resistance connected between said first and second connection terminals (4 and 5) across the terminals of which a voltage is measured from which the current flowing in a circuit passing through said first current transformer is determined, said device being characterized in that it includes a second current transformer connected to said first and second terminals (71, 72) of the protective resistance, and current branch connection means (8, 80) connected between said first connection terminal and said second terminal of said protective resistance.
A method for enhancing the productivity of a hydrocarbon-bearing calcareous or siliceous formation comprising: pumping into the wellbore penetrating the formation a well treatment composition comprising: a) a phosphonate acid, ester or salt thereof, wherein the phosphonate is of the formula: wherein R1, R2 and R3 are independently selected from hydrogen, alkyl, aryl, phosphonic, phosphonate, phosphate, aminophosphonic acid, aminophosphonate, acyl, amine, hydroxy and carboxyl groups and R4 and R5 are independently selected from hydrogen, sodium, potassium, ammonium or an organic radical; (b) a hydrofluoric acid source; (c) a quaternary ammonium salt; and (d) an organosilane; and preventing the formation or inhibiting the formation of inorganic fluoride scales in the wellbore and/or formation. pumping into the wellbore penetrating the formation a well treatment composition comprising: a) a phosphonate acid, ester or salt thereof, wherein the phosphonate is of the formula: wherein R1, R2 and R3 are independently selected from hydrogen, alkyl, aryl, phosphonic, phosphonate, phosphate, aminophosphonic acid, aminophosphonate, acyl, amine, hydroxy and carboxyl groups and R4 and R5 are independently selected from hydrogen, sodium, potassium, ammonium or an organic radical; (b) a hydrofluoric acid source; (c) a quaternary ammonium salt; and (d) an organosilane; and a) a phosphonate acid, ester or salt thereof, wherein the phosphonate is of the formula: wherein R1, R2 and R3 are independently selected from hydrogen, alkyl, aryl, phosphonic, phosphonate, phosphate, aminophosphonic acid, aminophosphonate, acyl, amine, hydroxy and carboxyl groups and R4 and R5 are independently selected from hydrogen, sodium, potassium, ammonium or an organic radical; (b) a hydrofluoric acid source; (c) a quaternary ammonium salt; and (d) an organosilane; and preventing the formation or inhibiting the formation of inorganic fluoride scales in the wellbore and/or formation.
A spacer textile (26, 226, 326) comprising a first fabric layer, a second fabric layer and a plurality of filaments comprising poly ether ether ketone connecting the first and second fabric layers characterised in that the first fabric layer is a first knitted fabric layer (30, 230, 330), the second fabric layer is a second knitted fabric layer (32, 232, 332), and the plurality of filaments comprising poly ether ether ketone are monofilaments (34, 234, 334) knitted with the first and second fabric layers (30, 230, 330; 32, 232, 332).
A method for producing fiberglass filtration media, comprising: preparing a mixture comprising: an isotactic polymeric acrylate; a polybutene; and a urea formaldehyde; and applying the mixture to fiberglass filaments. preparing a mixture comprising: an isotactic polymeric acrylate; a polybutene; and a urea formaldehyde; and an isotactic polymeric acrylate; a polybutene; and a urea formaldehyde; and applying the mixture to fiberglass filaments.
Industrial truck having a driver working area and a driver protection roof which is disposed above the driver working area and is composed of a transparent material, characterized in that a safety device which is elastically resilient in the vertical direction is disposed above the driver protection roof.
A wrappable textile sleeve for protecting elongate members against at least one of electromagnetic interference, radio frequency interference, or electrostatic discharge, comprising: a plurality of warp filaments; at least one weft filament; said warp filaments being woven with said at least one weft filament to form a woven substrate, said substrate having opposite sides (18,20) extending lengthwise between opposite ends (24,26), said opposite sides being wrappable about a central longitudinal axis of said sleeve into overlapping relation with one another; and wherein at least some of said warp filaments are provided as flat conductive filaments, characterized in that at least some of the flat conductive filaments include a plurality of flat conductive filaments stacked in overlapping relation with one another. a plurality of warp filaments; at least one weft filament; said warp filaments being woven with said at least one weft filament to form a woven substrate, said substrate having opposite sides (18,20) extending lengthwise between opposite ends (24,26), said opposite sides being wrappable about a central longitudinal axis of said sleeve into overlapping relation with one another; and wherein at least some of said warp filaments are provided as flat conductive filaments, characterized in that at least some of the flat conductive filaments include a plurality of flat conductive filaments stacked in overlapping relation with one another.
A method for fabricating a stator core (60a, 60b) and a back yoke of an outer rotor type BLDC motor applicable to a direct coupling type drum type washing machine, comprising the steps of: providing a metal base of an electric sheet; the method being characterised in that it comprises the step of: pressing the metal base to form a back yoke at a periphery of the metal base, and a stator core (60a, 60b) on an inside of the back yoke by one time of pressing, wherein the step of pressing includes the step of forming the back yoke and the stator core (60a, 60b) so that the back yoke and the stator core (60a, 60b) have a predetermined distance between each other, wherein the predetermined distance in formation of the back yoke and the stator core is a sum of a thickness of a magnet to be attached to an inside surface of the back yoke and a gap required to be maintained between the rotor and the stator in fabrication of the motor. providing a metal base of an electric sheet; the method being characterised in that it comprises the step of: pressing the metal base to form a back yoke at a periphery of the metal base, and a stator core (60a, 60b) on an inside of the back yoke by one time of pressing, wherein the step of pressing includes the step of forming the back yoke and the stator core (60a, 60b) so that the back yoke and the stator core (60a, 60b) have a predetermined distance between each other, wherein the predetermined distance in formation of the back yoke and the stator core is a sum of a thickness of a magnet to be attached to an inside surface of the back yoke and a gap required to be maintained between the rotor and the stator in fabrication of the motor. pressing the metal base to form a back yoke at a periphery of the metal base, and a stator core (60a, 60b) on an inside of the back yoke by one time of pressing, wherein the step of pressing includes the step of forming the back yoke and the stator core (60a, 60b) so that the back yoke and the stator core (60a, 60b) have a predetermined distance between each other, wherein the predetermined distance in formation of the back yoke and the stator core is a sum of a thickness of a magnet to be attached to an inside surface of the back yoke and a gap required to be maintained between the rotor and the stator in fabrication of the motor.
An automatic meal serving system (1, 2, 5) for serving diverse meals, the automatic meal serving system comprising: a conveyer module (101, 201, 501); a transporting module adapted for positioning a plurality of vessels on the conveyer module (1001, 201) one by one, configured to be movable to a top of the conveyer module (101, 201, 501); a food serving and heating module configured to serve a variety of foods and be placed along a transporting path of the conveyer module (101, 201, 501); heating one of the foods that is chosen, and feeding one of the vessels on the conveyer module with the heated food; and an ingredient serving module located beside the food serving and heating module, wherein the transporting module, the food serving and heating module, and the ingredient serving module are sequentially located along the conveyer module (101, 201, 501), wherein the food serving and heating module comprises: a variety of foods; at least one food serving tank, each of the at least one food serving tank having one of the foods therein; an ingredient feeding and guiding tank, a front end of each of the at least one food serving tank being connected to the ingredient feeding and guiding tank; and a heating unit placed below the ingredient feeding and guiding tank. a conveyer module (101, 201, 501); a transporting module adapted for positioning a plurality of vessels on the conveyer module (1001, 201) one by one, configured to be movable to a top of the conveyer module (101, 201, 501); a food serving and heating module configured to serve a variety of foods and be placed along a transporting path of the conveyer module (101, 201, 501); heating one of the foods that is chosen, and feeding one of the vessels on the conveyer module with the heated food; and an ingredient serving module located beside the food serving and heating module, wherein the transporting module, the food serving and heating module, and the ingredient serving module are sequentially located along the conveyer module (101, 201, 501), a variety of foods; at least one food serving tank, each of the at least one food serving tank having one of the foods therein; an ingredient feeding and guiding tank, a front end of each of the at least one food serving tank being connected to the ingredient feeding and guiding tank; and a heating unit placed below the ingredient feeding and guiding tank.
A method of constructing a tubular sleeve (10; 110) for protecting an elongate member, comprising: providing a knitting machine; knitting, on the machine, a tubular sleeve extending between opposite open ends (14, 16; 114); and forming at least one opening (18; 118) between said opposite ends, characterised by knitting the tubular sleeve in a single continuous knitting operation as a circumferentially continuous and circumferentially seamless wall and by forming the opening during said continuous knitting operation so as to have a continuous knit opening periphery by changing the knit pattern on the knitting machine and initiating the opening by a bind off knit pattern. providing a knitting machine; knitting, on the machine, a tubular sleeve extending between opposite open ends (14, 16; 114); and forming at least one opening (18; 118) between said opposite ends,
Method for flexible operation of a power plant having a waste heat steam generator with heat exchanger stages (10 - 15) for generating, using an exhaust gas flow of a gas turbine, fresh steam and/or intermediate superheater steam for a steam turbine, wherein an auxiliary firing is arranged in a flue gas duct of the waste heat steam generator, in the region of the heat exchanger stages (10 - 15), characterized in that for regulating the fresh steam and/or the intermediate superheater steam, at least one injection cooling device (20 - 23) is brought on-line directly upon using the auxiliary firing, wherein when using the auxiliary firing, a setpoint temperature for the fresh steam or for the hot intermediate superheater steam is set to the temperatures of the fresh steam or of the intermediate superheater steam actually measured prior to switching on the auxiliary firing.
Device for the centrifugal separation of particles from a gas stream, with a gas inlet having an inflow channel for the raw gas and a gas outlet having an outflow channel for the particle-free clean gas, with a rotationally driven shaft which can rotate relative to an axis of rotation, and with a bladed separator rotor arranged on the shaft, which separator rotor forms a separator channel of annular cross-section coaxial with the axis of rotation, wherein the separator channel extends in the longitudinal direction of the axis of rotation from an inlet section flow-connected with the gas inlet to an outlet section flow-connected with the gas outlet and has on the circumferential side of its shell outlet openings for the particles to be separated, characterized in that an annular flow guide element coaxial to the axis of rotation is associated to the separator rotor in the outlet section for dividing the gas stream into a particle-laden partial stream and a particle-free partial stream, and in that the gas outlet forms an additional branch channel associated with the particle-laden partial stream for returning the particle-laden partial stream to the separator channel, wherein the branch channel is flow-connected to an additional return channel of the gas inlet.