mhurhangee/patent-ind-claim-en huggingface dataset:
A heat treatment line (100; 200; 300; 400), comprising: a heating zone (106; 206; 306; 406) for accepting a metal strip (120; 220; 320; 420) moving in a downstream direction (146; 246; 346; 446) and heating the metal strip (120;220;320;420) to a peak metal temperature; a soaking zone (108; 208; 308; 408) positioned downstream of the heating zone (106; 206; 306; 406) for accepting the metal strip (120; 220; 320; 420) and maintaining the peak metal temperature for a duration; and a quenching zone (110; 210; 310; 410) positioned downstream of the soaking zone (108; 208; 308; 408) for rapidly quenching the metal strip (120; 220; 320; 420) from the peak metal temperature, characterized in that the heating zone (106; 206; 306; 406) comprises a plurality of magnetic rotors (226; 326; 426) for inducing eddy currents in the metal strip (120; 220; 320; 420) and the soaking zone (108; 208; 308; 408) comprises an additional plurality of magnetic rotors (224; 324; 424; 1524) for levitating the metal strip (120; 220; 320; 420), wherein each magnetic rotor in the heating zone (106; 206; 306; 406) and in the soaking zone (108; 208; 308; 408) is configured to rotate about an axis of rotation that is perpendicular to the downstream direction (146; 246; 346; 446) and parallel to a lateral width of the metal strip (120; 220; 320; 420), each magnetic rotor in the soaking zone (108; 208; 308; 408) comprising a plurality of laterally spaced magnetic sources arranged in such a manner that lateral positions of the magnetic sources within sequential magnetic rotors in the soaking zone (108; 208; 308; 408) are offset from one another, resulting in a staggered array of magnetic sources . a heating zone (106; 206; 306; 406) for accepting a metal strip (120; 220; 320; 420) moving in a downstream direction (146; 246; 346; 446) and heating the metal strip (120;220;320;420) to a peak metal temperature; a soaking zone (108; 208; 308; 408) positioned downstream of the heating zone (106; 206; 306; 406) for accepting the metal strip (120; 220; 320; 420) and maintaining the peak metal temperature for a duration; and a quenching zone (110; 210; 310; 410) positioned downstream of the soaking zone (108; 208; 308; 408) for rapidly quenching the metal strip (120; 220; 320; 420) from the peak metal temperature,
A method for operating a vehicle-external charging device for charging an electric or hybrid vehicle, wherein an electrical connection of an insulation monitor connected between a contactor of the charging device and a charging cable of the charging device is checked, wherein an electrical insulation of the charging cable is checked by the insulation monitor when the contactor is in an open switching state, characterised in that the charging cable is connected to first connections (3.1) of the insulation monitor , wherein electrical conductors between the contactor and a power electronics of the charging device are connected to second connections (3.2) of the insulation monitor ; when the contactor is in a closed switching state, the electrical connection of the insulation monitor is checked by the insulation monitor by way of a resistance measurement on electrical lines to be monitored, the insulation monitor being connected to said lines via the second connections (3.2), when the switching state of the contactor is open, the electrical insulation of the charging device between the contactor and the power electronics is checked by the insulation monitor , the electrical insulation of the charging cable is checked at the first connections (3.1) of the insulation monitor , wherein the electrical insulation of the charging device between the contactor and the power electronics is checked at the second connections (3.2) of the insulation monitor , wherein measured values at the first connections (3.1) are compared with measured values at the second connections (3.2) when the switching state of the contactor is closed. the charging cable is connected to first connections (3.1) of the insulation monitor , wherein electrical conductors between the contactor and a power electronics of the charging device are connected to second connections (3.2) of the insulation monitor ; when the contactor is in a closed switching state, the electrical connection of the insulation monitor is checked by the insulation monitor by way of a resistance measurement on electrical lines to be monitored, the insulation monitor being connected to said lines via the second connections (3.2), when the switching state of the contactor is open, the electrical insulation of the charging device between the contactor and the power electronics is checked by the insulation monitor , the electrical insulation of the charging cable is checked at the first connections (3.1) of the insulation monitor , wherein the electrical insulation of the charging device between the contactor and the power electronics is checked at the second connections (3.2) of the insulation monitor , wherein measured values at the first connections (3.1) are compared with measured values at the second connections (3.2) when the switching state of the contactor is closed.
A shaft assembly for a covering or protective device , in particular for a roller shutter, a roller door or an awning, the shaft assembly comprising a hollow shaped hollow section body , which is rotatable about its longitudinal axis and which is arranged to receive a curtain or a panel, wherein the shaft assembly is arranged to be mounted between a first support bearing and a second support bearing , wherein the hollow section body extends between the first support bearing and the second support bearing and comprises a first end facing the first support bearing and a second end facing the second support bearing , wherein at least at the first end or at the second end of the hollow section body a connecting sleeve is provided which may be coupled to the hollow section body , wherein a biasing element is arranged between the hollow section body and the connecting sleeve , wherein the connecting sleeve is axially displaceable relative to the hollow section body against a force applied by the biasing element , wherein at the hollow section body a pressure piece can be accommodated, at which the biasing element is supported, wherein the pressure piece is arranged to be coupled to a tube segment of the connecting sleeve , wherein the biasing element is arranged as a spring, formed concentrically with respect to the tube segment of the connecting sleeve , and arranged outside of the tube segment , and wherein the tube segment provides a guide for the pressure piece and the biasing element , characterized in that the shaft assembly comprises a drive unit which is arranged at least partially in the hollow section body , wherein the drive unit comprises an output for a rotatory driving of the hollow section body , and in that the biasing element does not penetrate into the interior of the hollow section body when the connecting sleeve is at least partially inserted into the interior of the hollow section body .
A logging tool for use in a wellbore, comprising: a mother tool having an upper end connected to a conveyance element ; a sensor assembly (28 1 ) selectively coupled to and decoupled from the mother tool ; and a communication system in communication between the sensor assembly (28 1 ) and mother tool ; characterised by the tool further comprising: additional sensor assemblies (28 2 , 28 3 ) that are selectively coupled and decoupled from the mother tool or an adjacent sensor assembly (28 1 , 28 2 , 28 3 ) with latching assemblies (37 1 ) of each of the sensor assemblies. a mother tool having an upper end connected to a conveyance element ; a sensor assembly (28 1 ) selectively coupled to and decoupled from the mother tool ; and a communication system in communication between the sensor assembly (28 1 ) and mother tool ; characterised by the tool further comprising: additional sensor assemblies (28 2 , 28 3 ) that are selectively coupled and decoupled from the mother tool or an adjacent sensor assembly (28 1 , 28 2 , 28 3 ) with latching assemblies (37 1 ) of each of the sensor assemblies.
An anti-counterfeiting hot stamping film comprising a first color layer , an anti-counterfeiting information layer , an optical protective layer and a second color layer , the first color layer and the second color layer are disposed oppositely, the anti-counterfeiting information layer and the optical protection layer are disposed between the first color layer and the second color layer ; wherein each of the first color layer , the anti-counterfeiting information layer , the optical protective layer and the second color layer is provided on the full surface area of the anti-counterfeiting hot stamping film, the first color layer is penetrable to light only under illumination and impenetrable in the absence of light, and the second color layer is impenetrable to light both under illumination and without illumination.
Optoelectronic sensor having at least one transmission light source for transmitting transmission light, having a transmission beam path assigned to the transmission light source, having at least one light receiver for receiving reflected or remitted transmission light , with a reception beam path associated with the light receiver, with a control and evaluation unit and with at least one reflector for combining transmission and/or reception beam paths onto a common beam path , characterized in that the reflector is designed for combining three transmission and/or reception beam paths , the reflector having a plurality of reflecting surfaces divided into a portion of first reflecting surfaces , second reflecting surfaces and third reflecting surfaces , which have an inclination to a reflector plane being perpendicular to the common beam path , wherein a predetermined portion of the reflecting surfaces of the reflector is assigned to each of the transmission and/or reception beam paths combined by the reflector in such a manner that transmission light incident on the reflector along an optical axis of a transmission beam path is reflected at the portion of the reflecting surfaces associated with the transmission beam path of said transmission light as a plurality of spaced-apart partial beams along an optical axis of the common beam path , and/or reflected or remitted transmission light incident along the optical axis of the common beam path on the reflector is reflected along an optical axis of the reception beam path at the portion of the reflecting surfaces associated with said reception beam path .
Device for equalizing a pressure difference for an aircraft, comprising - a planar partition wall which is fixed to the aircraft and separates a first space from a second space in respect of flow, wherein - the partition wall exhibits a flow opening which connects the first and second spaces in respect of flow, and - a decompression flap which closes the flow opening , wherein - an attachment of the decompression flap to the partition wall is designed to allow a detachment motion of the decompression flap when a predetermined pressure gradient between the first and second spaces is exceeded, such that a flow connection exists between the first and the second spaces , - wherein a safety device is provided that limits the detachment motion of the decompression flap , - wherein the safety device comprises an energy absorption device , characterised in that - the safety device comprises a webbing , - wherein the energy absorption device is provided by means of a loop held by a retaining means , wherein - the retaining means is designed to release the loop in the event that a predefined tensile force on the webbing is exceeded. - a planar partition wall which is fixed to the aircraft and separates a first space from a second space in respect of flow, wherein - the partition wall exhibits a flow opening which connects the first and second spaces in respect of flow, and - a decompression flap which closes the flow opening , wherein - an attachment of the decompression flap to the partition wall is designed to allow a detachment motion of the decompression flap when a predetermined pressure gradient between the first and second spaces is exceeded, such that a flow connection exists between the first and the second spaces , - wherein a safety device is provided that limits the detachment motion of the decompression flap , - wherein the safety device comprises an energy absorption device , characterised in that - the safety device comprises a webbing , - wherein the energy absorption device is provided by means of a loop held by a retaining means , wherein - the retaining means is designed to release the loop in the event that a predefined tensile force on the webbing is exceeded.
A variable valve actuation mechanism for an internal combustion engine comprising at least one valve for control of gas admission to a cylinder of the engine and/or gas exhaust from the cylinder, comprising - two concentrically arranged camshafts , - a cam set comprising two cams , each fixed to a respective of the camshafts , whereby the camshafts are arranged to be turned in relation to each other, so as to change the combined profile of the cams , and - a cam follower adapted to follow the combined profile of the cams and to actuate at least one of the at least one valve in dependence on the combined profile of the cams , - characterised in that the cam follower comprises two rollers , each roller being adapted to follow a respective of the cams . - two concentrically arranged camshafts , - a cam set comprising two cams , each fixed to a respective of the camshafts , whereby the camshafts are arranged to be turned in relation to each other, so as to change the combined profile of the cams , and - a cam follower adapted to follow the combined profile of the cams and to actuate at least one of the at least one valve in dependence on the combined profile of the cams , - characterised in that the cam follower comprises two rollers , each roller being adapted to follow a respective of the cams .
A loudspeaker assembly, comprising: a loudspeaker front case , a loudspeaker vibrator , a loudspeaker rear case , a deformable flexible seal bag , and an inlet configured to fill medium into the flexible seal bag ; wherein the loudspeaker assembly further comprises an inlet pipe which communicates with the inlet; the inlet pipe is gradually expanded from its distant end towards its proximal end to the inlet; the inlet is provided in the loudspeaker rear case , and the inlet pipe and the loudspeaker rear case are in an integrated structure; a front cavity is formed by the loudspeaker vibrator and the loudspeaker front case , and a rear cavity is formed by the flexible seal bag , the loudspeaker rear case and the loudspeaker vibrator .
A proximity sensor for detecting the proximity of an object, the sensor comprising a sensing element , a detection circuitry , and a housing , the sensing element being arranged in a front portion of the housing such that it is adapted to interact with the object through the front portion and the detection circuitry being interconnected with the sensing element in order to receive a detection signal from the sensing element , wherein the detection circuitry is provided on a circuit board extending at least through a middle portion of the housing , characterized in that the housing comprises multiple segments that are consecutively arranged in a longitudinal direction from a rear end toward a front end of the housing , wherein neighboring segments of said segments are linked to each other via a respective pivot axis extending transversely with respect to said longitudinal direction , such that the housing is bendable around each of said pivot axes , wherein both of said front portion and said middle portion each comprises at least one of said segments , and wherein the circuit board comprises at least one bendable section extending transversely with respect to said longitudinal direction , said bendable section being provided inside said neighboring segments .
An electrode assembly comprising two electrodes having polarities opposite to each other, and a separator interposed between the two electrodes, wherein the separator comprises: a separator base which comprises a porous polymer substrate having a plurality of pores, and a porous coating layer formed on at least one surface of the porous polymer substrate and containing a plurality of inorganic particles and a binder polymer positioned on the whole or a part of the surface of the inorganic particles to connect the inorganic particles with each other and fix them; and an adhesive layer formed on at least one surface of the separator base, provided to face either of the electrodes and containing an adhesive resin, and wherein the adhesion (Peel Strength) between the porous polymer substrate and the porous coating layer and the adhesion (Lami Strength) between the adhesive layer and the electrode are determined by the method described under the respective definitions in the description and satisfy the following Mathematical Formula 1: 1.10 ≤ Peel Strength / Lami Strength ≤ 2.1 a separator base which comprises a porous polymer substrate having a plurality of pores, and a porous coating layer formed on at least one surface of the porous polymer substrate and containing a plurality of inorganic particles and a binder polymer positioned on the whole or a part of the surface of the inorganic particles to connect the inorganic particles with each other and fix them; and an adhesive layer formed on at least one surface of the separator base, provided to face either of the electrodes and containing an adhesive resin, and wherein the adhesion (Peel Strength) between the porous polymer substrate and the porous coating layer and the adhesion (Lami Strength) between the adhesive layer and the electrode are determined by the method described under the respective definitions in the description and satisfy the following Mathematical Formula 1: 1.10 ≤ Peel Strength / Lami Strength ≤ 2.1
Plant for the heat treatment of friction elements , in particular sensorized braking elements such as brake pads, comprising: a first oven including a tunnel shaped casing and a plurality of infrared heaters arranged on a ceiling of the casing; and a conveyor device configured for receiving the respective friction elements to be treated on the metallic support side thereof, the conveyor device crossing by passing through the tunnel casing, from a first to a second mutually opposing open end thereof, the conveyor device being below the infrared heaters and configured such as to face, towards the infrared heaters, a block of friction material of the friction elements to be treated, that is opposite the metallic support thereof; wherein it further comprises: i)- a device feeding cold air into the first oven and towards the metallic support of the friction elements to be treated; the device feeding cold air comprising a distributor in order to feed the cold air (F) evenly over the entire floor plan of the conveyor device , from an opposite side to that facing the infrared heaters ; characterized in that, in combination with i) it further comprises ii)- a catchment configured in such a way as to extract from the oven the cold air (F) fed from the distributor before the cold air can pass beyond the conveyor device thereby reaching an empty space comprised between the conveyor device and the infrared heaters , such that only the metallic support of the friction elements to be treated is lapped by the cold air (F). i)- a device feeding cold air into the first oven and towards the metallic support of the friction elements to be treated; the device feeding cold air comprising a distributor in order to feed the cold air (F) evenly over the entire floor plan of the conveyor device , from an opposite side to that facing the infrared heaters ; characterized in that, in combination with i) it further comprises ii)- a catchment configured in such a way as to extract from the oven the cold air (F) fed from the distributor before the cold air can pass beyond the conveyor device thereby reaching an empty space comprised between the conveyor device and the infrared heaters , such that only the metallic support of the friction elements to be treated is lapped by the cold air (F).
A method performed by a wireless device operating in a wireless communications network wherein a plurality of beams is transmitted by one or more network nodes operating in the wireless communications network , the method comprising: - generating a log over a period of time, the log comprising: a) information about a first set of beams in the plurality of beams detected by the wireless device , and b) a time of detection, by the wireless device , of the first set of beams , the log comprising the information and the times of detection for both of: ∘ a first set of time periods when the wireless device was in a connected state in the wireless communications network , the first set of time periods being comprised in the period of time, and ∘ a second set of time periods when the wireless device lacked a connection in the wireless communications network , the second set of time periods being comprised in the period of time, and - sending the generated log to a first network node operating in the wireless communications network - receiving , from the first network node , an indication indicating at least one of: a set of reference signals and a second set of beams , the wireless device is to at least one of: a) provide a report to the first network node and b) evaluate the second set of beams for beam selection when not being connected to the wireless network , the indication being based on the sent log. - generating a log over a period of time, the log comprising: a) information about a first set of beams in the plurality of beams detected by the wireless device , and b) a time of detection, by the wireless device , of the first set of beams , the log comprising the information and the times of detection for both of: ∘ a first set of time periods when the wireless device was in a connected state in the wireless communications network , the first set of time periods being comprised in the period of time, and ∘ a second set of time periods when the wireless device lacked a connection in the wireless communications network , the second set of time periods being comprised in the period of time, and ∘ a first set of time periods when the wireless device was in a connected state in the wireless communications network , the first set of time periods being comprised in the period of time, and ∘ a second set of time periods when the wireless device lacked a connection in the wireless communications network , the second set of time periods being comprised in the period of time, and - sending the generated log to a first network node operating in the wireless communications network - receiving , from the first network node , an indication indicating at least one of: a set of reference signals and a second set of beams , the wireless device is to at least one of: a) provide a report to the first network node and b) evaluate the second set of beams for beam selection when not being connected to the wireless network , the indication being based on the sent log.