mhurhangee/ep-ind-claims huggingface dataset:
An on-cell remote indication system including an indicator circuit, the indicator circuit (200, 400) comprising: a battery (270, 470), the battery (270, 470) comprising a positive terminal (272, 472) and a negative terminal (274, 474); an antenna (210, 410); a decoupler component (240, 440) comprising a first decoupler component terminal (242, 442) and a second decoupler component terminal (244, 444); and an integrated circuit (220, 420); wherein said on-cell remote indication system is arranged to provide information about the battery; characterized in that; the integrated circuit (220, 420) is electrically coupled to the positive terminal (272, 472) of the battery (270, 470); the integrated circuit (220, 420) is electrically coupled to the first decoupler component terminal (242, 442); and the second decoupler component terminal (244, 444) is electrically connected to the negative terminal (274, 474) of the battery (270, 470); the antenna comprises at least one antenna trace (250, 450), a first antenna terminal (252, 452), and a second antenna terminal (254, 454); the decoupler component is configured to decouple a parasitic capacitance from the antenna, wherein the decoupler component (240, 440) is selected from the group consisting of a resistor, an inductor, and any combination thereof, and the integrated circuit (220, 420) is electrically coupled to the first antenna terminal (252, 452) and the second antenna terminal (254, 454). a battery (270, 470), the battery (270, 470) comprising a positive terminal (272, 472) and a negative terminal (274, 474); an antenna (210, 410); a decoupler component (240, 440) comprising a first decoupler component terminal (242, 442) and a second decoupler component terminal (244, 444); and an integrated circuit (220, 420); wherein said on-cell remote indication system is arranged to provide information about the battery; characterized in that; the integrated circuit (220, 420) is electrically coupled to the positive terminal (272, 472) of the battery (270, 470); the integrated circuit (220, 420) is electrically coupled to the first decoupler component terminal (242, 442); and the second decoupler component terminal (244, 444) is electrically connected to the negative terminal (274, 474) of the battery (270, 470); the antenna comprises at least one antenna trace (250, 450), a first antenna terminal (252, 452), and a second antenna terminal (254, 454); the decoupler component is configured to decouple a parasitic capacitance from the antenna, wherein the decoupler component (240, 440) is selected from the group consisting of a resistor, an inductor, and any combination thereof, and the integrated circuit (220, 420) is electrically coupled to the first antenna terminal (252, 452) and the second antenna terminal (254, 454).
Housing (12, 112) composed of an electrically insulating material for an electrical connector (10, 110), comprising a substantially planar rear wall (16, 116), a substantially cylindrical outer wall which extends out from the rear wall in axial direction, and an inner region which extends from the rear wall in axial direction and is arranged radially within the outer wall, a cylindrical channel is defined by the outer wall and the inner region and extends radially inwards from the outer wall and from the rear wall, the outer wall has a drainage opening to the cylindrical channel, the inner region has a bore which extends in axial direction and is delimited by the rear wall at one end and is open at the other end, the rear wall has an outer surface which is located on that side of the wall which is situated opposite the inner region, characterized in that an outlet channel extends from the bore, through the rear wall of the housing, to the outer surface, wherein a draining groove is formed in the outer surface of the rear wall, which draining groove extends from the outlet channel and provides a flow path for a fluid to the drainage opening, wherein the draining groove issues directly into the drainage opening.
Electronic device with a functional body and a contact, which is electrically connected to a first surface of the functional body, the contact having a peripheral zone and a central zone, and the functional body being configured in such a way that the electrical resistance of the functional body between the first surface and a second surface of the functional body remote from the first surface is greater in a first functional body portion, which, when viewed in plan view onto the electronic device, overlaps with the peripheral zone, than in a second functional body portion, which, when viewed in plan view onto the electronic device, overlaps with the central zone of the contact, characterized in that the functional body is configured in such a way that the first functional body portion has a greater resistivity compared with the second functional body portion.
An air purging (100, 200) unit for an imaging device (300, 400), comprising: a barrel (102, 202); a fluid-flow channel (104, 204, 204-1 to 204-4), one end of the fluid-flow channel being connected to the barrel and another end of the fluid-flow channel being removably couplable to an inlet (306, 406, 406-1 to 406-4) of a housing (304, 404) of the imaging device, the inlet being couplable to a fluid delivery tube (308, 408, 408-1 to 408-4) from a fluid storage chamber (302, 402, 402-1 to 402-4) to deliver a printing fluid to a cartridge; a piston element (110, 206) forming an air-tight seal inside the barrel; a spring element (116, 210), in a biased state, connected between an inner surface of the barrel and the piston element; and a locking unit (120, 214) to lock the piston element and retain the spring element in the biased state, wherein the locking unit is unlockable to release the piston element, break the air-tight seal, and unbias the spring element to remove air from the fluid delivery tube through the inlet prior to coupling the cartridge to the inlet. a barrel (102, 202); a fluid-flow channel (104, 204, 204-1 to 204-4), one end of the fluid-flow channel being connected to the barrel and another end of the fluid-flow channel being removably couplable to an inlet (306, 406, 406-1 to 406-4) of a housing (304, 404) of the imaging device, the inlet being couplable to a fluid delivery tube (308, 408, 408-1 to 408-4) from a fluid storage chamber (302, 402, 402-1 to 402-4) to deliver a printing fluid to a cartridge; a piston element (110, 206) forming an air-tight seal inside the barrel; a spring element (116, 210), in a biased state, connected between an inner surface of the barrel and the piston element; and a locking unit (120, 214) to lock the piston element and retain the spring element in the biased state, wherein the locking unit is unlockable to release the piston element, break the air-tight seal, and unbias the spring element to remove air from the fluid delivery tube through the inlet prior to coupling the cartridge to the inlet.
A thermal energy storage plant comprising a charging circuit and a discharging circuit, the charging circuit including: - a first fluid transporting machine for generating a flow of a working fluid in the charging circuit, - a heating device for transferring heat to the working fluid, - a main heat accumulator for storing the thermal energy of the working fluid; the discharging circuit including: - the main heat accumulator, - a thermal cycle for transforming the thermal energy stored in the main heat accumulator into mechanical power, the thermal cycle including a heat exchanger, wherein thermal energy storage plant further comprises a secondary heat accumulator extending between an upstream first end and a downstream second end - the first end being connected to the charging circuit, downstream the heating device and upstream of the main heat accumulator, the secondary heat accumulator having a lower thermal capacity than the main heat accumulator, characterized in that - the second end is connected to the discharging circuit, upstream the heat exchanger and downstream of the main heat accumulator - a first fluid transporting machine for generating a flow of a working fluid in the charging circuit, - a heating device for transferring heat to the working fluid, - a main heat accumulator for storing the thermal energy of the working fluid; - the main heat accumulator, - a thermal cycle for transforming the thermal energy stored in the main heat accumulator into mechanical power, the thermal cycle including a heat exchanger, wherein thermal energy storage plant further comprises a secondary heat accumulator extending between an upstream first end and a downstream second end - the first end being connected to the charging circuit, downstream the heating device and upstream of the main heat accumulator, the secondary heat accumulator having a lower thermal capacity than the main heat accumulator, characterized in that - the second end is connected to the discharging circuit, upstream the heat exchanger and downstream of the main heat accumulator
A variable speed generator for producing alternating current electrical power, the variable speed generator including: an alternator powerable by rotational action to generate a first AC, a first rectifier which rectifies the first AC from the alternator to provide a first rectified AC, a main exciter having a first field winding which receives the rectified first AC, and having a first armature which produces in response a second AC, a second rectifier which rectifies the second AC from the first armature to provide a second rectified AC, and a main generator (52, 152) having a second field winding (60, 160) which receives the rectified second AC, and having a second armature (61, 161) which produces in response an output AC; wherein: the second field winding is configured to provide a plurality of selectively activatable pole configurations which differ in the number of their poles, and includes first and second independently activatable winding formations, the first winding formation providing a pole configuration having a first number of active poles, and the second winding formation providing a pole configuration having a different second number of active poles, such that the frequency of the output AC can be varied by switching between the first and second winding formations, and the variable speed generator further includes a control arrangement for activating the selected pole configuration. an alternator powerable by rotational action to generate a first AC, a first rectifier which rectifies the first AC from the alternator to provide a first rectified AC, a main exciter having a first field winding which receives the rectified first AC, and having a first armature which produces in response a second AC, a second rectifier which rectifies the second AC from the first armature to provide a second rectified AC, and a main generator (52, 152) having a second field winding (60, 160) which receives the rectified second AC, and having a second armature (61, 161) which produces in response an output AC; the second field winding is configured to provide a plurality of selectively activatable pole configurations which differ in the number of their poles, and includes first and second independently activatable winding formations, the first winding formation providing a pole configuration having a first number of active poles, and the second winding formation providing a pole configuration having a different second number of active poles, such that the frequency of the output AC can be varied by switching between the first and second winding formations, and the variable speed generator further includes a control arrangement for activating the selected pole configuration.
Assembly (200, 280) comprising: - a structure, - two panels (204a-b) contiguous along a line of contact which extends along the structure, - a planar flexible blade (255, 285) secured to the structure, wherein at least one edge of the flexible blade (255, 285) extends opposite one of the panels (204a-b), and - for said at least one edge, an elastomer bead (253a-b) fastened to the flexible blade (255, 285) or to the panel (204a-b) opposite said at least one edge, wherein the panels (204a-b) are fastened to the structure while sandwiching the flexible blade (255, 285), and wherein said or each elastomer bead (253a-b) is sandwiched between the flexible blade (255, 285) and an opposite inner surface of the panel (204a-b), said assembly being characterized in that, for said at least one edge, the elastomer bead (253a-b) is fastened to the opposite inner surface of the panel (204a-b), said flexible blade (255, 285) bearing a receptacle (602a-b) in which the corresponding elastomer bead (253a-b) is accommodated. - a structure, - two panels (204a-b) contiguous along a line of contact which extends along the structure, - a planar flexible blade (255, 285) secured to the structure, wherein at least one edge of the flexible blade (255, 285) extends opposite one of the panels (204a-b), and - for said at least one edge, an elastomer bead (253a-b) fastened to the flexible blade (255, 285) or to the panel (204a-b) opposite said at least one edge, wherein the panels (204a-b) are fastened to the structure while sandwiching the flexible blade (255, 285), and wherein said or each elastomer bead (253a-b) is sandwiched between the flexible blade (255, 285) and an opposite inner surface of the panel (204a-b), said assembly being characterized in that, for said at least one edge, the elastomer bead (253a-b) is fastened to the opposite inner surface of the panel (204a-b), said flexible blade (255, 285) bearing a receptacle (602a-b) in which the corresponding elastomer bead (253a-b) is accommodated.
A control stick adapted to control the movement of an object, the control stick comprising: a support; a linkage for mounting a handle on said support for selective compound pivotal movement about two mutually-perpendicular axes (X u1 -X u1, X u2 -X u2) to provide an input to said control stick, said linkage including: a first gimbal mounted on said support; an upper member mounted on said first gimbal, said upper member having a handle arranged above said first gimbal, and having a lower portion arranged below said first gimbal; an intermediate member; a second gimbal connecting said upper and intermediate members; and a lower member, one of said intermediate and lower members being movably mounted on the other of said intermediate and lower members to permit relative movement therebetween when said handle is moved relative to said support; a third gimbal connecting said lower member to said support; and a resilient member arranged to bias the direction of relative movement between said intermediate and lower members. a support; a linkage for mounting a handle on said support for selective compound pivotal movement about two mutually-perpendicular axes (X u1 -X u1, X u2 -X u2) to provide an input to said control stick, said linkage including: a first gimbal mounted on said support; an upper member mounted on said first gimbal, said upper member having a handle arranged above said first gimbal, and having a lower portion arranged below said first gimbal; an intermediate member; a first gimbal mounted on said support; an upper member mounted on said first gimbal, said upper member having a handle arranged above said first gimbal, and having a lower portion arranged below said first gimbal; an intermediate member; a second gimbal connecting said upper and intermediate members; and a lower member, one of said intermediate and lower members being movably mounted on the other of said intermediate and lower members to permit relative movement therebetween when said handle is moved relative to said support; a third gimbal connecting said lower member to said support; and a resilient member arranged to bias the direction of relative movement between said intermediate and lower members. a lower member, one of said intermediate and lower members being movably mounted on the other of said intermediate and lower members to permit relative movement therebetween when said handle is moved relative to said support; a third gimbal connecting said lower member to said support; and a resilient member arranged to bias the direction of relative movement between said intermediate and lower members.
Shoe, in particular a sports shoe, comprising: a. an upper, wherein the upper comprises knitwear; and b. an outer sole which is connected to the upper, the outer sole comprising knitwear, wherein c. the knitwear comprises a different binding in the area of the outer sole than in the area of the upper, and wherein d. the knitwear of the outer sole comprises a weft-knitted or a warp-knitted pocket on the top, into which a midsole can be inserted. a. an upper, wherein the upper comprises knitwear; and b. an outer sole which is connected to the upper, the outer sole comprising knitwear, wherein c. the knitwear comprises a different binding in the area of the outer sole than in the area of the upper, and wherein d. the knitwear of the outer sole comprises a weft-knitted or a warp-knitted pocket on the top, into which a midsole can be inserted.
A device for the optical detection of test objects, having at least one optical element designed as a sensor or light source, in the optical path of which is arranged a deflecting mirror designed as an inner cone mirror, characterized in that the element is designed as a photoelectric line sensor with a supplementary optical system or as a point light source with a supplementary optical system, wherein said supplementary optical system expands the beam path of the point light source to a planar beam fan, and in that the element and the inner cone mirror located opposite from said element form a telecentric optical system with a scan line in the shape of a circular arc and that these are arranged in such a manner that the plane of the light beams originating from the optical centre of the supplementary optical system of the line sensor or the plane of the beam fan is aligned perpendicular to the rotational axis of the inner cone mirror, which consists of a sector of a ring surface of a truncated cone with a reflecting interior surface, wherein the telecentric optical system is moveable relative to the test objects to be scanned.
A brake beam fatigue test stand, for simultaneously testing a fatigue strength of two brake beams, comprising: a base, and four upright columns vertical to the base and arranged on the base at intervals; from a left side to a right side of the base successively, there are a first upright column, a second upright column, a third upright column and a fourth upright column, wherein, a first tangential load actuator capable of applying a tangential load is mounted vertically between the first upright column and the second upright column, with simulated wheels being mounted on a front side and a rear side of a bottom of the first tangential load actuator; a second tangential load actuator capable of applying a tangential load is mounted vertically between the third upright column and the fourth upright column, with simulated wheels being mounted on a front side and a rear side of a bottom of the second tangential load actuator; the second tangential load actuator and the first tangential load actuator are symmetrically arranged by taking a pressure load actuator as a center; and, the two brake beams are uprightly mounted on a front side and a rear side of the upright columns, with two ends of the brake beam being supported on treads of the simulated wheels, characterised in that - the pressure load actuator capable of applying a pressure load is mounted vertically between the second upright column and the third upright column. - the pressure load actuator capable of applying a pressure load is mounted vertically between the second upright column and the third upright column.
Use of a hydroxyl-functionalized polyurethane hotmelt prepolymer comprising the chemical reaction product of isocyanate-reactive starting materials with at least one isocyanate-containing starting material, characterized in that the isocyanate-reactive starting materials of the hydroxyl-functionalized polyurethane hotmelt prepolymer comprise at least one polypropylene glycol PI having a functionality of more than two and a number-average molar mass of greater than or equal to 3000 g/mol, at least one polypropylene glycol PII having a functionality of less than or equal to two and a number-average molar mass of less than or equal to 1000 g/mol, and at least one chain extender KI having a functionality of less than or equal to two and a number-average molar mass of less than or equal to 500 g/mol, where the polypropylene glycol PII has a number-average molar mass at least twice as great as the chain extender KI and the number-average molar masses are determined in each case by gel permeation chromatography, and in that the isocyanate-containing starting material of the hydroxyl-functionalized polyurethane hotmelt prepolymer comprises an aliphatic or alicyclic diisocyanate, as a pressure-sensitive adhesive.
A robotic lawnmower system comprising a signal generator and a robotic lawnmower comprising a controller and a plurality of magnetic sensors, wherein the robotic lawnmower system is characterized in that the controller is configured for receiving, through a first magnetic sensor, at least one CDMA signal transmitted by the signal generator and determining a first signal quality level for the first magnetic sensor wherein the first signal quality level relates to a signal level correlation; receiving, through at least one second magnetic sensor (170"), at least one CDMA signal transmitted by the signal generator and determining a second signal quality level for the at least one second magnetic sensor (170") wherein the second signal quality level relates to a signal level correlation; comparing the first signal quality level and the at least one second signal quality level; and selecting the magnetic sensor providing the highest signal quality level as the magnetic sensor to be used for synchronisation of the controller to the signal generator. receiving, through a first magnetic sensor, at least one CDMA signal transmitted by the signal generator and determining a first signal quality level for the first magnetic sensor wherein the first signal quality level relates to a signal level correlation; receiving, through at least one second magnetic sensor (170"), at least one CDMA signal transmitted by the signal generator and determining a second signal quality level for the at least one second magnetic sensor (170") wherein the second signal quality level relates to a signal level correlation; comparing the first signal quality level and the at least one second signal quality level; and selecting the magnetic sensor providing the highest signal quality level as the magnetic sensor to be used for synchronisation of the controller to the signal generator.