mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a writing apparatus comprising an elongate tubular member having a first end and a second end and being sized to be hand-held; a magnet coupled to the tubular member; and a tip coupled to the first end of the tubular member and configured to dispense a colorant and to provide a magnetic field (103a,b,c; 310); and a display (110, 200, 300) capable of changing optical state in the presence of a magnetic field and having a surface (111, 330) capable of receiving the colorant; the system being characterized in that the display is an electrophoretic display comprising a plurality of charged particles (211, 212; 321, 322) capable of moving through a fluid under an electric field, the electrophoretic display also being capable of changing optical state in response to a magnetic field produced by the magnet and applied to the particles, wherein the state change varies as a function of the angle between the long axis of the tubular member and the surface of the electrophoretic display. a writing apparatus comprising an elongate tubular member having a first end and a second end and being sized to be hand-held; a magnet coupled to the tubular member; and a tip coupled to the first end of the tubular member and configured to dispense a colorant and to provide a magnetic field (103a,b,c; 310); and a display (110, 200, 300) capable of changing optical state in the presence of a magnetic field and having a surface (111, 330) capable of receiving the colorant; the system being characterized in that the display is an electrophoretic display comprising a plurality of charged particles (211, 212; 321, 322) capable of moving through a fluid under an electric field, the electrophoretic display also being capable of changing optical state in response to a magnetic field produced by the magnet and applied to the particles, wherein the state change varies as a function of the angle between the long axis of the tubular member and the surface of the electrophoretic display.
A wireless charging transmitter, comprising: a first charging pad including a first wireless power circuit; a second charging pad including a second wireless power circuit; and a controller electrically connected to the first and second wireless power circuits and configured to: in response to detection of a first electronic device being placed on the first charging pad, transfer, after an authentication procedure with the first electronic device for a designated protocol is completed, power at a first designated wireless power level via the first wireless power circuit, characterized in the that controller is further configured to: in response to detection of a second electronic device being placed on the second charging pad while the power at the first designated wireless power level is being transferred via the first wireless power circuit, transmit a first command for decreasing power transferred to the first electronic device, when the second electronic device requests a same amount of power as the first electronic device, and transfer, upon receipt of a first request for power at a second designated wireless power level from the first electronic device in response to the first command, the power at the second designated wireless power level via each of the first and second wireless power circuits, wherein the second designated wireless power level is lower than the first designated wireless power level. a first charging pad including a first wireless power circuit; a second charging pad including a second wireless power circuit; and a controller electrically connected to the first and second wireless power circuits and configured to: in response to detection of a first electronic device being placed on the first charging pad, transfer, after an authentication procedure with the first electronic device for a designated protocol is completed, power at a first designated wireless power level via the first wireless power circuit, in response to detection of a second electronic device being placed on the second charging pad while the power at the first designated wireless power level is being transferred via the first wireless power circuit, transmit a first command for decreasing power transferred to the first electronic device, when the second electronic device requests a same amount of power as the first electronic device, and transfer, upon receipt of a first request for power at a second designated wireless power level from the first electronic device in response to the first command, the power at the second designated wireless power level via each of the first and second wireless power circuits, wherein the second designated wireless power level is lower than the first designated wireless power level.
An electrohydraulic vehicle brake system, comprising an electromechanical actuator for actuating at least one hydraulic piston (112; 114) in order to set a hydraulic pressure at one or more of a plurality of wheel brakes; a set of electrically activatable valve arrangements (152, 154, 156, 158, 170, 172, 174, 176) having a respective first valve arrangement (152, 154, 156, 158) between a cylinder accommodating the at least one hydraulic piston (112; 114) and each of the plurality of wheel brakes, and at least one second valve arrangement (170, 172, 174, 176) between a receptacle device (120, 194, 196) for hydraulic fluid and at least one of the wheel brakes, wherein the at least one second valve arrangement (170, 172, 174, 176) is provided in parallel with that one of the first valve arrangements (152, 154, 156, 158) which is associated with the same wheel brake as the at least one second valve arrangement (170, 172, 174, 176); characterized by a control device or control device system configured to activate the first valve arrangements (152, 154, 156, 158) and the electromechanical actuator, in order to build up a hydraulic pressure at at least one of the wheel brakes and via the opened first valve arrangement (152, 154, 156, 158) associated with that wheel brake and to reduce a built-up hydraulic pressure via the opened first valve arrangement (152, 154, 156, 158). a respective first valve arrangement (152, 154, 156, 158) between a cylinder accommodating the at least one hydraulic piston (112; 114) and each of the plurality of wheel brakes, and at least one second valve arrangement (170, 172, 174, 176) between a receptacle device (120, 194, 196) for hydraulic fluid and at least one of the wheel brakes, wherein the at least one second valve arrangement (170, 172, 174, 176) is provided in parallel with that one of the first valve arrangements (152, 154, 156, 158) which is associated with the same wheel brake as the at least one second valve arrangement (170, 172, 174, 176); characterized by
A method at a sensor apparatus (210, 212, 214), comprising: calculating a value for a target function at the sensor apparatus, the target function being a weighted summation of a moving variance of three accelerometers at the sensor apparatus, the moving variance from each accelerometer being provided with an independent weighting value; determining that the value of the target function is greater than a first threshold at a first moment; finding that the value of the target function is greater than a second threshold for a first defined time period after the first moment, the second threshold being less than the first threshold; based on the determining and finding, declaring an inflight state for the sensor apparatus; and turning off transmission from a radio of the sensor apparatus based on the inflight state, wherein each of the three accelerometers has a different orientation. calculating a value for a target function at the sensor apparatus, the target function being a weighted summation of a moving variance of three accelerometers at the sensor apparatus, the moving variance from each accelerometer being provided with an independent weighting value; determining that the value of the target function is greater than a first threshold at a first moment; finding that the value of the target function is greater than a second threshold for a first defined time period after the first moment, the second threshold being less than the first threshold; based on the determining and finding, declaring an inflight state for the sensor apparatus; and turning off transmission from a radio of the sensor apparatus based on the inflight state, wherein each of the three accelerometers has a different orientation.
Multi-spindle operating head comprising a central structure adapted to rotate orthogonally to a work plane, said central structure supporting a plurality of electro spindles distributed on a circumference with the same angular distance, the rotation axis of each electro spindle disposed radially with respect to the axis of rotation of the central structure, the central structure comprising a seat adapted to receive each electro spindle by means of a mechanical interface in order to arrange at least an array of rings, aligned on at least one circumference, coaxial with the central structure, characterised in that: - each of said plurality of electro spindles connected to the multi-spindle operating head comprises a cylindrical casing longitudinally delimited by a front flange and a rear flange, a shaft rotatably supported by both the front flange and the rear flange by means of bearings, an interface flange, a rotor attached to the shaft, a stator attached to an inner wall surface of the cylindrical casing so as to surround the rotor, an electrical connector mounted on the rear flange and electrically connected to the stator, the cylindrical casing consisting of a first section to support the interface flange through the front flange and a second section provided with said mechanical interface to connect the electro spindle to the multi-spindle operating head, said first section surmounted by at least one of the two rings,, said two rings, positioned so as to form a first U-shaped transverse annular channel and a second U-shaped transverse annular channel; - the surface of the first section is approximately increased by at least twice through the rings, and the channels,; - the thickness of each ring, is approximately equal to the thickness of the front flange or to that of the rear flange. - each of said plurality of electro spindles connected to the multi-spindle operating head comprises a cylindrical casing longitudinally delimited by a front flange and a rear flange, a shaft rotatably supported by both the front flange and the rear flange by means of bearings, an interface flange, a rotor attached to the shaft, a stator attached to an inner wall surface of the cylindrical casing so as to surround the rotor, an electrical connector mounted on the rear flange and electrically connected to the stator, the cylindrical casing consisting of a first section to support the interface flange through the front flange and a second section provided with said mechanical interface to connect the electro spindle to the multi-spindle operating head, said first section surmounted by at least one of the two rings,, said two rings, positioned so as to form a first U-shaped transverse annular channel and a second U-shaped transverse annular channel; - the surface of the first section is approximately increased by at least twice through the rings, and the channels,; - the thickness of each ring, is approximately equal to the thickness of the front flange or to that of the rear flange.
A fuel-cell gas diffusion layer that is obtained by forming a conductive porous layer (21a, 21b) on one surface of a sheet-shaped diffusion-layer base material (22a, 22b) and that is stacked on a membrane electrode assembly in a state in which the conductive porous layer (21a, 21b) is in contact with a catalyst layer (12a, 12b) of the membrane electrode assembly, wherein the conductive porous layer (21a, 21b) comprises: a porous conductive member formed so as to have a porosity distribution, and density of carbon serving as a porous aggregate, substantially uniform in a stacking direction with respect to the membrane electrode assembly; and a water-repellent member that is arranged dispersedly across an inside of the porous conductive member, and wherein, when a ratio of a surface of the porous conductive member to a surface that is exposed without being covered with the water-repellent member is defined as an exposure ratio, the exposure ratio of a surface, on a catalyst layer (12a, 12b) side, of the conductive porous layer (21a, 21b), is higher than the exposure ratio, on the diffusion-layer base material side (22a, 22b), of the conductive porous layer (21a, 21b). a porous conductive member formed so as to have a porosity distribution, and density of carbon serving as a porous aggregate, substantially uniform in a stacking direction with respect to the membrane electrode assembly; and a water-repellent member that is arranged dispersedly across an inside of the porous conductive member, and wherein, when a ratio of a surface of the porous conductive member to a surface that is exposed without being covered with the water-repellent member is defined as an exposure ratio, the exposure ratio of a surface, on a catalyst layer (12a, 12b) side, of the conductive porous layer (21a, 21b), is higher than the exposure ratio, on the diffusion-layer base material side (22a, 22b), of the conductive porous layer (21a, 21b).
Rubber compounding ingredient comprising sulfide-containing organosilicon compound and silane-modified polymer, the silane-modified polymer being an isoprene homopolymer or styrene-isoprene copolymer comprising constituent units of at least one type selected from units having the formulae and: wherein * designates a bond to an adjoining unit, each R 1 independently is a C 1 -C 10 alkyl group or C 6 -C 10 aryl group, each R 2 independently is a C 1 -C 10 alkyl group or C 6 -C 10 aryl group, and m is an integer of 1 to 3.
Device for transporting containers along a transport direction, preferably at or inside a container cleaning machine, comprising at least one transport apparatus having at least one belt-type transport means and following downstream from this in the transport direction at least one container-receiving apparatus, wherein the container-receiving apparatus comprises a disk, which can be rotated on a shaft by means of a first drive, and which has at least one driver element, wherein the shaft of the disk is connected to a rocker element, and the rocker element comprises a second drive, by means of which the rocker element can be moved to and fro, characterised in that the container-receiving apparatus comprises a sensor unit, which is designed to sense the angular position of the disk, and an inclination sensor unit arranged on the rocker element, which is designed to sense the position in respect of an angular position of the rocket element.
A combustion device comprising: a plurality of burners each having a flame port at an upper end portion; a combustion housing for housing the plurality of burners; a heat exchanger for recovering heat in combustion exhaust gas generated by the plurality of burners to heat a heat medium, the heat exchanger being provided continuously to an upper portion of the combustion housing; a burner support frame for supporting the plurality of burners laterally arranged side by side in the combustion housing, the burner support frame having a support frame side plate facing an outer surface of an outermost burner disposed on an outermost side among the plurality of burners; and a distribution plate having a plurality of distribution holes, the distribution plate being provided below the plurality of burners and extending between a pair of opposed side walls of the combustion housing, wherein a side plate-inner gap through which air flows is defined between the outermost burner and the support frame side plate, a side plate-outer gap through which the air flows is defined between the support frame side plate and a side wall of the combustion housing, the side plate-outer gap has a width wider than a width of the side plate-inner gap, the support frame side plate extends upward from an upper surface of the distribution plate, and an upper end of the support frame side plate is located above a predetermined height from the upper end portion of the outermost burner. a plurality of burners each having a flame port at an upper end portion; a combustion housing for housing the plurality of burners; a heat exchanger for recovering heat in combustion exhaust gas generated by the plurality of burners to heat a heat medium, the heat exchanger being provided continuously to an upper portion of the combustion housing; a burner support frame for supporting the plurality of burners laterally arranged side by side in the combustion housing, the burner support frame having a support frame side plate facing an outer surface of an outermost burner disposed on an outermost side among the plurality of burners; and a distribution plate having a plurality of distribution holes, the distribution plate being provided below the plurality of burners and extending between a pair of opposed side walls of the combustion housing, wherein a side plate-inner gap through which air flows is defined between the outermost burner and the support frame side plate, a side plate-outer gap through which the air flows is defined between the support frame side plate and a side wall of the combustion housing, the side plate-outer gap has a width wider than a width of the side plate-inner gap, the support frame side plate extends upward from an upper surface of the distribution plate, and an upper end of the support frame side plate is located above a predetermined height from the upper end portion of the outermost burner.
A particle sensing device for sensing particles entrained in a gas, the particle sensing device comprising: a sampling volume through which gas having entrained particles with a distribution of particle sizes including a first size range and a second size range, larger than or smaller than the first size range, is to be flowed; a thermophoretic impulse region arranged to apply a thermophoretic impulse to the entrained particles; a first sensing region, downstream of the thermophoretic impulse region, the first sensing region having a first sensor, wherein, in operation, the thermophoretic impulse, the flow of gas and gravity combine to cause at least some of the particles to follow respective trajectories within the sampling volume, characterized in that the particle sensing device further comprises: an interception region, interposed between the thermophoretic impulse region and the first sensing region, the interception region having an interception unit located to intercept the respective trajectories of particles of the second size range but not respective trajectories of particles of the first size range, wherein the first sensor is located to intercept the respective trajectories of particles of the first size range and to detect particles of the first size range. a sampling volume through which gas having entrained particles with a distribution of particle sizes including a first size range and a second size range, larger than or smaller than the first size range, is to be flowed; a thermophoretic impulse region arranged to apply a thermophoretic impulse to the entrained particles; a first sensing region, downstream of the thermophoretic impulse region, the first sensing region having a first sensor, wherein, in operation, the thermophoretic impulse, the flow of gas and gravity combine to cause at least some of the particles to follow respective trajectories within the sampling volume, characterized in that the particle sensing device further comprises: wherein, in operation, the thermophoretic impulse, the flow of gas and gravity combine to cause at least some of the particles to follow respective trajectories within the sampling volume, characterized in that the particle sensing device further comprises: an interception region, interposed between the thermophoretic impulse region and the first sensing region, the interception region having an interception unit located to intercept the respective trajectories of particles of the second size range but not respective trajectories of particles of the first size range,
A method for transmitting, by a user equipment, UE, a physical uplink control channel, PUCCH, signal in a wireless communication system, the method comprising: configuring a first number of repetitions for PUCCH format 1; configuring a second number of repetitions for PUCCH format 2a or 2b; and transmitting a PUCCH signal based on the PUCCH format 1 by the first number of repetitions or based on the PUCCH format 2a or 2b by the second number of repetitions, wherein the first number of repetitions and the second number of repetitions are configured based on a coverage enhancement, CE, level. configuring a first number of repetitions for PUCCH format 1; configuring a second number of repetitions for PUCCH format 2a or 2b; and transmitting a PUCCH signal based on the PUCCH format 1 by the first number of repetitions or based on the PUCCH format 2a or 2b by the second number of repetitions, wherein the first number of repetitions and the second number of repetitions are configured based on a coverage enhancement, CE, level.
A surface cleaning device, comprising: a cleaning head comprising a housing, wherein the housing defines an inlet and comprises brush chambers; and at least one vent (450, 452) coupled to a top portion of the housing; and a sweeper assembly coupled to the housing and comprising brushes having bristles (638, 640), wherein the cleaning head is configured to create a suction with a surface by directing air flow into the housing through the inlet and out of the housing through the at least one vent, characterized in that the surface cleaning device further comprises: a vent cover removably coupled to one of the at least one vent; and a vent tab coupled to the vent cover, wherein the vent tab is configured to be twisted in a first direction to unlock the vent cover from the at least one vent and in a second direction opposite the first direction to lock the vent cover to the at least one vent. a cleaning head comprising a housing, wherein the housing defines an inlet and comprises brush chambers; and at least one vent (450, 452) coupled to a top portion of the housing; and a sweeper assembly coupled to the housing and comprising brushes having bristles (638, 640), wherein the cleaning head is configured to create a suction with a surface by directing air flow into the housing through the inlet and out of the housing through the at least one vent, characterized in that the surface cleaning device further comprises: a vent cover removably coupled to one of the at least one vent; and a vent tab coupled to the vent cover, wherein the vent tab is configured to be twisted in a first direction to unlock the vent cover from the at least one vent and in a second direction opposite the first direction to lock the vent cover to the at least one vent. a vent cover removably coupled to one of the at least one vent; and a vent tab coupled to the vent cover, wherein the vent tab is configured to be twisted in a first direction to unlock the vent cover from the at least one vent and in a second direction opposite the first direction to lock the vent cover to the at least one vent.