mhurhangee/ep-ind-claims huggingface dataset:
A balancer for being used in a balancing unit of a laundry treatment apparatus, comprising: a receptacle (551, 552) to be mounted to an inner circumferential surface of a drum of said apparatus, the receptacle providing an inner space for storage of liquid; an inlet formed at the receptacle, through which liquid can be introduced into the receptacle (551, 552); an outlet for discharging the liquid stored in the receptacle (551, 552); and guiding means for guiding liquid introduced into the receptacle (551, 552) through the inlet such that the liquid moves from a center of the receptacle to an edge thereof, characterized in that the guiding means is a guide plate, which is configured to divide the inner space of the receptacle (551, 552) into an upper space facing a rotational center of the drum and a lower space facing the inner circumferential surface of the drum. a receptacle (551, 552) to be mounted to an inner circumferential surface of a drum of said apparatus, the receptacle providing an inner space for storage of liquid; an inlet formed at the receptacle, through which liquid can be introduced into the receptacle (551, 552); an outlet for discharging the liquid stored in the receptacle (551, 552); and guiding means for guiding liquid introduced into the receptacle (551, 552) through the inlet such that the liquid moves from a center of the receptacle to an edge thereof, characterized in that the guiding means is a guide plate, which is configured to divide the inner space of the receptacle (551, 552) into an upper space facing a rotational center of the drum and a lower space facing the inner circumferential surface of the drum.
A mobile terminal comprising a display screen, a functional assembly, and a housing, wherein the display screen comprises a display panel, the display panel comprising an active area and a functional area; the active area being configured to display information; and the functional area being operable in a first mode for displaying information and a second mode for allowing light to pass through; wherein the functional assembly comprises a camera, a proximity sensor, and an ambient light sensor, wherein the proximity sensor comprises a light emitter configured to emit the light and a light receiver configured to receive the light emitted by the light emitter and reflected by an external object; wherein the housing and the display screen enclose a receiving space to receive the functional assembly; the housing comprises a bottom plate opposite to the functional area, characterized in that the light emitter, the camera, the light receiver and the ambient light sensor are sequentially disposed on the bottom plate in a direction along a length of the bottom plate and located between the functional area and the bottom plate, wherein the camera is disposed between the light emitter and the light receiver, and the light receiver is disposed between the camera and the ambient light sensor.
A system for automatically closing a door of a vehicle comprising: a door check connected between a body of the vehicle and the door of the vehicle; a cable; and an actuator comprising a motor and a pulley, wherein a first end of the cable is attached to the door check and a second end of the cable is attached to the pulley, and the motor is configured to pull the second end of the cable around the pulley such that the first end of the cable causes the door check to be placed into a closed state, wherein the closed state corresponds to a closed position of the door of the vehicle. a door check connected between a body of the vehicle and the door of the vehicle; a cable; and an actuator comprising a motor and a pulley, wherein a first end of the cable is attached to the door check and a second end of the cable is attached to the pulley, and the motor is configured to pull the second end of the cable around the pulley such that the first end of the cable causes the door check to be placed into a closed state, wherein the closed state corresponds to a closed position of the door of the vehicle.
A wide input voltage power supply circuit for a load, the circuit comprising: a first regulation stage comprising a linear regulator circuit configured to maintain a bus voltage within a predefined voltage range when an input voltage exceeds a predefined input level, the linear regulator circuit comprising a first FET coupled to a first zener diode; and a second regulation stage comprising a buck converter circuit configured to regulate an average bus voltage to a predetermined load level, and including an under voltage lockout configuration, the under voltage lockout configured to set a minimum turn-on voltage for the load, the under voltage lockout placed in series with a second zener diode to set the minimum turn-on voltage for the load. a first regulation stage comprising a linear regulator circuit configured to maintain a bus voltage within a predefined voltage range when an input voltage exceeds a predefined input level, the linear regulator circuit comprising a first FET coupled to a first zener diode; and a second regulation stage comprising a buck converter circuit configured to regulate an average bus voltage to a predetermined load level, and including an under voltage lockout configuration, the under voltage lockout configured to set a minimum turn-on voltage for the load, the under voltage lockout placed in series with a second zener diode to set the minimum turn-on voltage for the load.
Solid fuel boiler, comprising a vertical hot gas flue having and upper and a lower end (1.1, 1.2), and a cleaning element arranged in the hot gas flue, wherein an adjustment element is provided for adjustment of the cleaning element in the longitudinal direction of the hot gas flue, characterized in that the adjusting element is arranged at the lower end (1.2) of the hot gas flue.
A leadless cardiac pacemaker configured to sense cardiac activity and to deliver pacing therapy to a patient's heart, the LCP comprising: a housing; a first electrode secured relative to the housing and exposed to the environment outside of the housing; a second electrode secured relative to the housing and responsive to the environment outside of the housing; a sensing module disposed within the housing and exposed to the environment outside of the housing, the sensing module configured to detect one or more atrial fiducials that are indicative of an atrial contraction; a control module operatively coupled to the first electrode, the second electrode, and the sensing module, the control module is configured to: track the one or more detected atrial fiducials that are indicative of an atrial contraction over a plurality of cardiac cycles; deliver a plurality of different ventricular pacing therapies to the patient's heart via the first electrode and the second electrode, wherein the control module selects which ventricular pacing therapy to deliver based, at least in part, on one or more of the tracked atrial fiducials. a housing; a first electrode secured relative to the housing and exposed to the environment outside of the housing; a second electrode secured relative to the housing and responsive to the environment outside of the housing; a sensing module disposed within the housing and exposed to the environment outside of the housing, the sensing module configured to detect one or more atrial fiducials that are indicative of an atrial contraction; a control module operatively coupled to the first electrode, the second electrode, and the sensing module, the control module is configured to: track the one or more detected atrial fiducials that are indicative of an atrial contraction over a plurality of cardiac cycles; deliver a plurality of different ventricular pacing therapies to the patient's heart via the first electrode and the second electrode, wherein the control module selects which ventricular pacing therapy to deliver based, at least in part, on one or more of the tracked atrial fiducials. track the one or more detected atrial fiducials that are indicative of an atrial contraction over a plurality of cardiac cycles; deliver a plurality of different ventricular pacing therapies to the patient's heart via the first electrode and the second electrode, wherein the control module selects which ventricular pacing therapy to deliver based, at least in part, on one or more of the tracked atrial fiducials.
A process for producing hydrocarbons from carbon oxides, comprising: a) reacting a first carbon oxides with an active metal at an elevated temperature and producing thermal energy; b) supplying at least a portion of the thermal energy to an electrolysis process, and recovering hydrogen; and c) contacting at least a portion of the hydrogen with a second carbon oxides to form hydrocarbons. a) reacting a first carbon oxides with an active metal at an elevated temperature and producing thermal energy; b) supplying at least a portion of the thermal energy to an electrolysis process, and recovering hydrogen; and c) contacting at least a portion of the hydrogen with a second carbon oxides to form hydrocarbons.
A rotary displacement compressor comprising: a compressor body that compresses a medium by reducing a volume of the medium using rotation; a discharge pipe through which a compressed medium, which is discharged through a discharge port of the compressor body, flows; a check valve that shuts off the compressed medium flowing backward to the compressor body; and a backflow control valve that allows a predetermined rate of the compressed medium to flow backward, wherein the check valve and the backflow control valve are disposed in series via the discharge pipe, wherein a first aftercooler is disposed between the discharge port of the compressor body and the check valve to cool the compressed medium discharged through the discharge port, characterized in that: a second aftercooler is disposed between the discharge port of the check valve and the backflow control valve. a compressor body that compresses a medium by reducing a volume of the medium using rotation; a discharge pipe through which a compressed medium, which is discharged through a discharge port of the compressor body, flows; a check valve that shuts off the compressed medium flowing backward to the compressor body; and a backflow control valve that allows a predetermined rate of the compressed medium to flow backward, wherein the check valve and the backflow control valve are disposed in series via the discharge pipe, wherein a first aftercooler is disposed between the discharge port of the compressor body and the check valve to cool the compressed medium discharged through the discharge port, characterized in that: a second aftercooler is disposed between the discharge port of the check valve and the backflow control valve.
A vane cooling system for a gas turbine engine, the vane cooling system comprising: a vane (21,51,421,551) arranged on a stator and having a cavity (23,53,423,553) extending continuously from a radially inner end to a radially outer end of the vane (21,51, 421,551), wherein the vane (21,51, 421,551) has a radially inner inlet 24,54,424,554 and a radially outer inlet (25,55,425,555); a second cooling fluid feed (39,69,439,569) in communication with the radially inner inlet (24,54,424,554) and a first cooling fluid feed (28,57,428,558) in communication with the radially outer inlet (25,55,425,555); wherein the second cooling fluid feed (39,69,439,569) has a higher pressure than the first cooling fluid feed (28,57,428,558); characterised in that: the radially outer inlet (25,55,425,555) crosses an axially extending annular cavity (33,63,433,563) between a radially outer casing (31,61,431,561) and the radially outer end of the vane (21,51,421,551) and the radially outer inlet (25,55,425,555) is arranged in fluid communication with the axially extending annular cavity (33,63,433,563), wherein downstream of the vane (21,51, 421,551), the axially extending annular cavity (33,63,433,563) is defined by a radially outer casing (31,61,431,561) and a segmented annular blade ring, segments of the annular blade ring being suspended from a radially inner surface of the radially outer casing (31,61,431,561); and the vane cooling system has a flow adjustment device (30,60,430,560) arranged for adjusting a flow of the first cooling fluid feed into the radially outer inlet (25,55,425,555). a vane (21,51,421,551) arranged on a stator and having a cavity (23,53,423,553) extending continuously from a radially inner end to a radially outer end of the vane (21,51, 421,551), wherein the vane (21,51, 421,551) has a radially inner inlet 24,54,424,554 and a radially outer inlet (25,55,425,555); a second cooling fluid feed (39,69,439,569) in communication with the radially inner inlet (24,54,424,554) and a first cooling fluid feed (28,57,428,558) in communication with the radially outer inlet (25,55,425,555); wherein the second cooling fluid feed (39,69,439,569) has a higher pressure than the first cooling fluid feed (28,57,428,558); characterised in that: the radially outer inlet (25,55,425,555) crosses an axially extending annular cavity (33,63,433,563) between a radially outer casing (31,61,431,561) and the radially outer end of the vane (21,51,421,551) and the radially outer inlet (25,55,425,555) is arranged in fluid communication with the axially extending annular cavity (33,63,433,563), wherein downstream of the vane (21,51, 421,551), the axially extending annular cavity (33,63,433,563) is defined by a radially outer casing (31,61,431,561) and a segmented annular blade ring, segments of the annular blade ring being suspended from a radially inner surface of the radially outer casing (31,61,431,561); and the vane cooling system has a flow adjustment device (30,60,430,560) arranged for adjusting a flow of the first cooling fluid feed into the radially outer inlet (25,55,425,555).
Method for manufacturing a cooking vessel comprising a bottom comprising a metal layer, an aluminium layer and a steel layer, and a lateral wall rising at the periphery of the bottom and comprising the metal layer, said method comprising the steps where: a) in planes substantially parallel between them, a flat aluminium plate is arranged between a flat metal plate and a hollow steel plate in the shape of a cup, the flat aluminium plate and the steel plate having, in said planes, widths that are respectively less than that of the metal plate, b) the plates (30a, 30b, 30c) are heated to at least a softening temperature of the aluminium plate, c) - at a temperature where the flat aluminium plate is softened, the steel plate is struck to the metal plate, - and the metal plate is deformed in such a way as to form said bottom and said lateral wall, each plate (30a, 30b, 30c) becoming a part at least of one said layer (3a, 3b, 3c), with the mass of aluminium that the flat aluminium plate presents being concentrated in the cup, the steel plate, the flat aluminium plate and the metal plate adhering between them. a) in planes substantially parallel between them, a flat aluminium plate is arranged between a flat metal plate and a hollow steel plate in the shape of a cup, the flat aluminium plate and the steel plate having, in said planes, widths that are respectively less than that of the metal plate, b) the plates (30a, 30b, 30c) are heated to at least a softening temperature of the aluminium plate, c) - at a temperature where the flat aluminium plate is softened, the steel plate is struck to the metal plate, - and the metal plate is deformed in such a way as to form said bottom and said lateral wall, - and the metal plate is deformed in such a way as to form said bottom and said lateral wall,
Electrochemical cell, at least consisting of an anode half-cell with an anode, a cathode half-cell with a cathode, and an ion exchange membrane that is arranged between the anode half-cell and the cathode half-cell, the anode and/or the cathode being a gas diffusion electrode and a gap being arranged between the gas diffusion electrode and the ion exchange membrane, and the half-cell (2, 3) with the gas diffusion electrode having an electrolyte inflow and an electrolyte outflow as well as a gas inlet and a gas outlet, characterized in that the electrolyte inflow is connected to the gap in a sealed manner, in that a gas space is arranged downstream of the gas diffusion electrode and in that the gas space has a gas inlet and a gas outlet.
Mop bucket with two compartments, one for clean water and the other for dirty water, positioned in accordance with two parallel and horizontal planes, having the mop bucket further a pair of wringers (4 and 5), one associated with each compartment, and an opening providing the mop head with access to the clean water is characterised by the fact that it is made of three parts that can be joined together: a first, main part with the clean water container, on whose mouth, which is also partially affected by it, a second piece is coupled, containing the dirty water container, which has a smaller layout and lower height, in such a way that when fitted together, the bottom of this part is higher than the bottom of the main body and two mouths are defined for the bucket as a whole. Said whole is then finished at the top with a third piece, which can be coupled to said whole and which contains said pair of wringers (4 and 5), formally and dimensionally appropriate for coinciding with the openings for accessing each of the dirty water and clean water containers (3 and 2), as well as said opening providing the mop head with access to the clean water.
An electronic stylus comprising: a shaft having a first end and a second end; a circuit positioned within the shaft; a single ring-button positioned around an axis of the shaft extending between the first end and the second end; and a sensor positioned within the shaft and connected to the circuit, wherein the ring-button is configured to move in a direction perpendicular to a length of the shaft defined by the first end and the second end such that a first area of the ring button moves inward toward a center of the shaft to contact the ring button sensor or increase an amount of contact with the ring button sensor and a second area of the ring button, opposite from the first area, moves outward from the center of the shaft when the first area moves inward; and wherein the ring-button is configured to contact the sensor to activate a function of the stylus or a function of an electronic device in communication with the stylus. a shaft having a first end and a second end; a circuit positioned within the shaft; a single ring-button positioned around an axis of the shaft extending between the first end and the second end; and a sensor positioned within the shaft and connected to the circuit, wherein the ring-button is configured to move in a direction perpendicular to a length of the shaft defined by the first end and the second end such that a first area of the ring button moves inward toward a center of the shaft to contact the ring button sensor or increase an amount of contact with the ring button sensor and a second area of the ring button, opposite from the first area, moves outward from the center of the shaft when the first area moves inward; and wherein the ring-button is configured to contact the sensor to activate a function of the stylus or a function of an electronic device in communication with the stylus.
An exhaust system, especially for an internal combustion engine, comprising an exhaust line, wherein the exhaust line comprises at least one turbocharger as well as a thermoelectric converter arrangement, arranged downstream in the flow direction of an exhaust gas, with a thermoelectric converter stage, wherein associated with the exhaust line is at least one bypass line which branches off, conveying the exhaust gas, upstream of the turbocharger from the exhaust line to discharge at least a proportion of the exhaust gas into the at least one bypass line wherein the at least one bypass line leads into the exhaust line, conveying the exhaust gas, downstream of the thermoelectric converter stage, characterised in that the thermoelectric converter stage comprises a thermoelectric generator, at least one heat exchanger and a cooling circuit coupled to the heat exchanger, wherein the at least one heat exchanger is operatively coupled to the exhaust line to cause an exchange of heat between the exhaust line and the cooling circuit coupled to the heat exchanger, wherein furthermore the thermoelectric generator of the thermoelectric converter stage is operatively coupled to the cooling circuit such that the thermoelectric generator is arranged inside the cooling circuit and thus outside the exhaust line, wherein heat is exchanged via the heat exchanger, operatively coupled to the exhaust line, onto a cooling medium of the cooling circuit and heats the cooling medium and in turn the heated cooling medium subsequently acts on the thermoelectric generator.
An absorbent sheet comprising: from about 90% to about 25% by weight pulp-derived papermaking fiber; from about 10% to about 75% by weight synthetic polymer fiber; an epihalohydrin/amine functional wet-strength resin in an amount of from about 2.5 kg/ton to about 50 kg/ton based on the dry weight of fiber in the sheet; a strength agent selected from carboxylmethylcellulose and anionic starch; and from about 2.5 kg/ton to about 37.5 kg/ton of an anionic olefin copolymer resin based on the dry weight of fiber in the sheet, wherein the sheet exhibits a wet/dry tensile ratio of at least 40%. from about 90% to about 25% by weight pulp-derived papermaking fiber; from about 10% to about 75% by weight synthetic polymer fiber; an epihalohydrin/amine functional wet-strength resin in an amount of from about 2.5 kg/ton to about 50 kg/ton based on the dry weight of fiber in the sheet; a strength agent selected from carboxylmethylcellulose and anionic starch; and from about 2.5 kg/ton to about 37.5 kg/ton of an anionic olefin copolymer resin based on the dry weight of fiber in the sheet, wherein the sheet exhibits a wet/dry tensile ratio of at least 40%.
An antibody which binds to a protein encoded by Homo sapiens podocalyxin-like (PODXL) transcript variant 2 of SEQ ID NO: 2, and which has an anti-cancer activity, comprising a light chain variable region comprising amino acid sequences of SEQ ID NOs: 3 to 5; and a heavy chain variable region comprising amino acid sequences of SEQ ID NOs: 6 to 8.