mhurhangee/ep-ind-claims huggingface dataset:
Cooling module for a motor vehicle, comprising: - a first heat exchanger arranged to be connected to a first cooling circuit, - a second heat exchanger arranged to be connected to a second cooling circuit, - an air circulation path in which the first and second heat exchangers are at least partially placed, and - a ventilation device arranged to selectively generate, within the air circulation path, an air flow: o in a first direction, from the first exchanger towards the second exchanger, and o in a second direction, from the second exchanger towards the first exchanger, the ventilation device comprising at least one air guidance element (81; 91) arranged to selectively assume two different configurations: - a first configuration, in which the air guidance element (81; 91) is arranged to generate the air flow in the first direction and - a second configuration, in which the air guidance element is arranged to generate the air flow in the second direction, the air guidance element (81; 91) being at least one blowing pipe provided with at least one opening for ejecting the air flow, the blowing pipe being arranged so as to be able to assume, in the first configuration, a first position for blowing the air flow in the first direction and, in the second configuration, a second position for blowing the air flow in the second direction. - a first heat exchanger arranged to be connected to a first cooling circuit, - a second heat exchanger arranged to be connected to a second cooling circuit, - an air circulation path in which the first and second heat exchangers are at least partially placed, and - a ventilation device arranged to selectively generate, within the air circulation path, an air flow: o in a first direction, from the first exchanger towards the second exchanger, and o in a second direction, from the second exchanger towards the first exchanger, the ventilation device comprising at least one air guidance element (81; 91) arranged to selectively assume two different configurations: - a first configuration, in which the air guidance element (81; 91) is arranged to generate the air flow in the first direction and - a second configuration, in which the air guidance element is arranged to generate the air flow in the second direction, the air guidance element (81; 91) being at least one blowing pipe provided with at least one opening for ejecting the air flow, the blowing pipe being arranged so as to be able to assume, in the first configuration, a first position for blowing the air flow in the first direction and, in the second configuration, a second position for blowing the air flow in the second direction. o in a first direction, from the first exchanger towards the second exchanger, and o in a second direction, from the second exchanger towards the first exchanger, - a first configuration, in which the air guidance element (81; 91) is arranged to generate the air flow in the first direction and - a second configuration, in which the air guidance element is arranged to generate the air flow in the second direction,
A sheet manufacturing apparatus comprising: a coarse crushing portion that crushes a raw material containing a fiber into coarse crushed pieces; a defibrating portion that defibrates the coarse crushed pieces into a defibrated material; a sieve portion that includes a plurality of openings; an accumulation portion that accumulates the defibrated material passing through the opening of the sieve portion; a sheet forming portion that presses and heats the defibrated material accumulated by the accumulation portion to form a sheet; a pipe that connects the coarse crushing portion and the defibrating portion; characterized by a transport passage that connects to the pipe and transports the defibrated material, which has not passed through the opening of the sieve portion, to the pipe. a coarse crushing portion that crushes a raw material containing a fiber into coarse crushed pieces; a defibrating portion that defibrates the coarse crushed pieces into a defibrated material; a sieve portion that includes a plurality of openings; an accumulation portion that accumulates the defibrated material passing through the opening of the sieve portion; a sheet forming portion that presses and heats the defibrated material accumulated by the accumulation portion to form a sheet; a pipe that connects the coarse crushing portion and the defibrating portion; characterized by a transport passage that connects to the pipe and transports the defibrated material, which has not passed through the opening of the sieve portion, to the pipe.
A display device for a clockwork movement comprising a frame, comprising: - a support secured to the frame and on which the date numbers from 1 to 31 are inscribed, - a platform rotatably mounted on the frame relative to the support, - means for rotating said platform, - a date indicator secured to said platform, - a moon phase indicator rotatably mounted on said platform, and - means for rotating the moon phase indicator relative to the date indicator, characterized in that the date indicator presents a shape of a first disc comprising an aperture revealing a date number, the first disc being arranged to perform one revolution in 31 days. - a support secured to the frame and on which the date numbers from 1 to 31 are inscribed, - a platform rotatably mounted on the frame relative to the support, - means for rotating said platform, - a date indicator secured to said platform, - a moon phase indicator rotatably mounted on said platform, and - means for rotating the moon phase indicator relative to the date indicator,
A pool cleaner assembly comprising a pool cleaner body supported for motion over an underwater pool surface, the pool cleaner body defining a water source connection and a suction opening on a lower surface thereof through which debris is removed from the underwater pool surface; and a steering device having a first steering device end configured for connection to a water hose and a second steering device end connected to the water source connection of the pool cleaner body, the steering device being operable to generate relative rotational motion between the first and second steering device ends, a steering gear being fixedly coupled to one of the first and second steering device ends; wherein the steering device includes: a steering device body; a driving unit configured to convert water flow through the steering device body to rotational motion; and a program gear assembly driven by the driving unit and generating the relative rotational motion between the first and second steering device ends (18,20); wherein the program gear is configured to automatically alternate the relative rotational motion between the first and second steering device ends (18,20) between a first rotational direction and a second rotational direction counter to the first rotational direction; and wherein the program gear assembly includes: a program gear having a plurality of inwardly oriented teeth and plurality of outwardly oriented teeth; and an output gear assembly including at least one output gear, the output gear assembly arranged adjacent to the program gear such that during a first portion of program gear rotation, the output gear assembly is driven by the inwardly oriented teeth in the first rotational direction, and during a second portion of program gear rotation, the output gear assembly is driven by the outwardly oriented teeth in the second rotational direction, the output gear being engaged with the steering gear. a steering device body; a driving unit configured to convert water flow through the steering device body to rotational motion; and a program gear assembly driven by the driving unit and generating the relative rotational motion between the first and second steering device ends (18,20); wherein the program gear is configured to automatically alternate the relative rotational motion between the first and second steering device ends (18,20) between a first rotational direction and a second rotational direction counter to the first rotational direction; and a program gear having a plurality of inwardly oriented teeth and plurality of outwardly oriented teeth; and an output gear assembly including at least one output gear, the output gear assembly arranged adjacent to the program gear such that during a first portion of program gear rotation, the output gear assembly is driven by the inwardly oriented teeth in the first rotational direction, and during a second portion of program gear rotation, the output gear assembly is driven by the outwardly oriented teeth in the second rotational direction, the output gear being engaged with the steering gear.
A humidification and air cleaning apparatus, comprising: an outer housing forming an exterior and having a cylindrical shape; an inner housing disposed inside the outer housing, and spaced apart from the outer housing; an air blowing passage formed between the outer housing and the inner housing; a blower motor disposed inside the inner housing; a blower fan disposed at a lower part of the inner housing, and coupled to a rotating shaft of the blower motor; and a plurality of diffuser blades, disposed at the air blowing passage, connecting the outer housing and the inner housing, and configured to guide in an upward direction air blown by the blower fan; characterised in that each diffuser blade comprises: a first blade having an inner end and an outer end with respect to the inner housing; and a second blade having an inner end and an outer end with respect to the inner housing; wherein the inner end of the first blade is coupled to the inner housing, the outer end of the first blade is coupled to the inner end of the second blade, and the outer end of the second blade is coupled to the outer housing; and the first blade and the second blade are inclined with respect to each other to form an included angle. an outer housing forming an exterior and having a cylindrical shape; an inner housing disposed inside the outer housing, and spaced apart from the outer housing; an air blowing passage formed between the outer housing and the inner housing; a blower motor disposed inside the inner housing; a blower fan disposed at a lower part of the inner housing, and coupled to a rotating shaft of the blower motor; and a plurality of diffuser blades, disposed at the air blowing passage, connecting the outer housing and the inner housing, and configured to guide in an upward direction air blown by the blower fan; characterised in that each diffuser blade comprises: a first blade having an inner end and an outer end with respect to the inner housing; and a second blade having an inner end and an outer end with respect to the inner housing; wherein the inner end of the first blade is coupled to the inner housing, the outer end of the first blade is coupled to the inner end of the second blade, and the outer end of the second blade is coupled to the outer housing; and the first blade and the second blade are inclined with respect to each other to form an included angle. a first blade having an inner end and an outer end with respect to the inner housing; and a second blade having an inner end and an outer end with respect to the inner housing; wherein the inner end of the first blade is coupled to the inner housing, the outer end of the first blade is coupled to the inner end of the second blade, and the outer end of the second blade is coupled to the outer housing; and the first blade and the second blade are inclined with respect to each other to form an included angle.
A method of forming a reinforced composite layer comprising: disposing a fiber preform on a target platform; placing a pair of electrodes (41, 51', 61, 71) onto a single surface of the fiber preform with a gap between the electrodes (41, 51', 61, 71); applying an electrical voltage through the pair of electrodes (41, 51', 61, 71) and across the gap on the fiber preform; disposing a layer of powder onto at least a portion of the heated fiber preform; and impregnating the powder into the fiber preform and consolidating the powder and the fiber preform, thereby forming a reinforced composite layer. disposing a fiber preform on a target platform; placing a pair of electrodes (41, 51', 61, 71) onto a single surface of the fiber preform with a gap between the electrodes (41, 51', 61, 71); applying an electrical voltage through the pair of electrodes (41, 51', 61, 71) and across the gap on the fiber preform; disposing a layer of powder onto at least a portion of the heated fiber preform; and impregnating the powder into the fiber preform and consolidating the powder and the fiber preform, thereby forming a reinforced composite layer.
A method for producing a sulfur-modified polyacrylonitrile containing sodium and/or potassium in a total amount of 100 ppm by mass to 1000 ppm by mass, the method comprising: a step of heating a mixture of a polyacrylonitrile containing sodium and/or potassium in a total amount of 126 ppm by mass to 2360 ppm by mass and elemental sulfur in a non-oxidizing atmosphere.
A method for obtaining crystallized lactose, comprising: i) in a first crystallization pass: - subjecting an aqueous solution comprising lactose to a lactose crystallization process to obtain crystallized lactose and a mother liquor, and, - optionally, washing said crystallized lactose (11,12) thereby generating one or more batches of wash water comprising lactose (16,17), - collecting said mother liquor and, when present, said one or more batches of said wash water (16, 17) thereby obtaining a first stock of a first crystallization pass lactose solution; ii) performing in a batch process on said first stock solution a concentration pass comprising - demineralizing said first crystallization pass lactose solution to obtain a demineralized first crystallization pass lactose solution, and iii) concentrating said demineralized first pass lactose solution thereby obtaining a concentrated demineralized first crystallization pass lactose solution; iv) collecting said concentrated demineralized first crystallization pass lactose solution thereby obtaining a second stock solution comprising said concentrated demineralized first concentration pass lactose solution; and v) on said second stock solution perform a second crystallization pass independently of said first crystallization pass. i) in a first crystallization pass: - subjecting an aqueous solution comprising lactose to a lactose crystallization process to obtain crystallized lactose and a mother liquor, and, - optionally, washing said crystallized lactose (11,12) thereby generating one or more batches of wash water comprising lactose (16,17), - collecting said mother liquor and, when present, said one or more batches of said wash water (16, 17) thereby obtaining a first stock of a first crystallization pass lactose solution; - subjecting an aqueous solution comprising lactose to a lactose crystallization process to obtain crystallized lactose and a mother liquor, and, - optionally, washing said crystallized lactose (11,12) thereby generating one or more batches of wash water comprising lactose (16,17), - collecting said mother liquor and, when present, said one or more batches of said wash water (16, 17) thereby obtaining a first stock of a first crystallization pass lactose solution; ii) performing in a batch process on said first stock solution a concentration pass comprising - demineralizing said first crystallization pass lactose solution to obtain a demineralized first crystallization pass lactose solution, and - demineralizing said first crystallization pass lactose solution to obtain a demineralized first crystallization pass lactose solution, and iii) concentrating said demineralized first pass lactose solution thereby obtaining a concentrated demineralized first crystallization pass lactose solution; iv) collecting said concentrated demineralized first crystallization pass lactose solution thereby obtaining a second stock solution comprising said concentrated demineralized first concentration pass lactose solution; and v) on said second stock solution perform a second crystallization pass independently of said first crystallization pass.
A method for detecting a single base substitution at a single nucleotide polymorphism site contained in a nucleic acid sample by utilizing a polymerase chain reaction, the method combines the steps of: (a) hybridizing to the nucleic acid a mutant primer in which the base of the third nucleotide from the 3' end corresponds to the base of a mutant nucleotide of the single nucleotide polymorphism, in which the base of the second nucleotide from the 3' end is not complementary to the base of the corresponding nucleotide of the nucleic acid, and in which the bases of the other nucleotides are complementary to bases of the corresponding nucleotides of the nucleic acid; (b) elongating the mutant primer with a DNA polymerase and deoxyribonucleoside triphosphate that is a substrate thereof; and (c) determining whether the mutant primer is elongated or not based on the presence or absence of an amplification product of the polymerase chain reaction, and thereby, detecting the single base substitution contained in the nucleic acid sample based on whether the mutant primer is elongated or not. (a) hybridizing to the nucleic acid a mutant primer in which the base of the third nucleotide from the 3' end corresponds to the base of a mutant nucleotide of the single nucleotide polymorphism, in which the base of the second nucleotide from the 3' end is not complementary to the base of the corresponding nucleotide of the nucleic acid, and in which the bases of the other nucleotides are complementary to bases of the corresponding nucleotides of the nucleic acid; (b) elongating the mutant primer with a DNA polymerase and deoxyribonucleoside triphosphate that is a substrate thereof; and (c) determining whether the mutant primer is elongated or not based on the presence or absence of an amplification product of the polymerase chain reaction, and thereby, detecting the single base substitution contained in the nucleic acid sample based on whether the mutant primer is elongated or not.
An adaptive modulation control system comprising: • a propagation path measuring section (1, 10) configured to measure for each OFDM subcarrier of a received signal a signal-to-noise ratio, SNR, based on information of the received signal; • a reception state measuring section (2, 12) configured to calculate, for each OFDM subcarrier, a normalized reception power value being a ratio between a reception power corresponding to the OFDM subcarrier and a median value over all reception powers over all OFDM subcarriers of the received signal; • a correcting section (3, 14) configured to make, for each of the OFDM subcarriers, a correction of reducing the SNR when the normalized reception power corresponding to the OFDM subcarrier is larger than one, and increasing the SNR when the normalized reception power corresponding to the OFDM subcarrier is smaller than one; and • a modulation parameter selecting section (4, 15) configured to select, for each corrected SNR, a modulation and coding scheme, MCS, based on a table, wherein the table indicates for a SNR between zero and below a first threshold a MCS 1, for a SNR between the first threshold and below a second threshold a MCS2, for a SNR between the second threshold and below a third threshold a MCS 3 and for a SNR equal to or larger than the third threshold a MCS 4; • a subcarrier adaptive modulation coding section (6, 17) configured to, for each subcarrier of a signal to be sent, perform an adaptive modulation of the subcarrier according to the selected MCS for the subcarrier. • a propagation path measuring section (1, 10) configured to measure for each OFDM subcarrier of a received signal a signal-to-noise ratio, SNR, based on information of the received signal; • a reception state measuring section (2, 12) configured to calculate, for each OFDM subcarrier, a normalized reception power value being a ratio between a reception power corresponding to the OFDM subcarrier and a median value over all reception powers over all OFDM subcarriers of the received signal; • a correcting section (3, 14) configured to make, for each of the OFDM subcarriers, a correction of reducing the SNR when the normalized reception power corresponding to the OFDM subcarrier is larger than one, and increasing the SNR when the normalized reception power corresponding to the OFDM subcarrier is smaller than one; and • a modulation parameter selecting section (4, 15) configured to select, for each corrected SNR, a modulation and coding scheme, MCS, based on a table, wherein the table indicates for a SNR between zero and below a first threshold a MCS 1, for a SNR between the first threshold and below a second threshold a MCS2, for a SNR between the second threshold and below a third threshold a MCS 3 and for a SNR equal to or larger than the third threshold a MCS 4; • a subcarrier adaptive modulation coding section (6, 17) configured to, for each subcarrier of a signal to be sent, perform an adaptive modulation of the subcarrier according to the selected MCS for the subcarrier.
Method for measuring a load on an industrial truck, wherein the load rests on a vertically movable load-holding device which is lifted by a hydraulic lifting device, in particular a lifting cylinder, with detection means for the pressure of a hydraulic fluid, with the detection means for a lifting height and/or lifting speed and with a controller which determines a load weight from the detected pressure of the hydraulic lifting device, characterized in that the controller carries out a correction of the load weight on the basis of the lifting speed or a lifting speed derived from the lifting height, by taking into account the friction on the basis of a Stribeck function.
Tamping machine for tamping sleepers of a track, having a machine frame which can be moved on rail undercarriages and extends in the longitudinal direction of the tamping machine, and a satellite which is arranged between the rail undercarriages and can be moved between the rail undercarriages via an undercarriage and a travel drive on the track, which satellite is guide-connected to the machine frame via a satellite longitudinal guide and which has, between the running gear and the satellite longitudinal guide, a tamping unit which is vertically adjustable with respect to the satellite and a track-lifting/straightening unit, characterized in that the satellite is assigned a hydraulic recuperation brake which counteracts the travel drive.
A termination assembly for coupling to a transducer, the termination assembly comprising: a generally cylindrical plug body having a nose end, a tail end opposite the nose end, and a lock-engaging channel at a position between the tail end and the nose end; a cable having a first end, a second end, a signal conductor, and a pliable fixing member; a generally tubular retainer for coupling the transducer to a meter body, the retainer having a central passage, an outer surface, and a bore intersecting the central passage; and a locking member; wherein the central passage of the retainer receives at least a portion of the plug body, including the lock-engaging channel, the lock-engaging channel being aligned with the retainer bore; wherein the locking member is at least partially disposed in the retainer bore and the lock-engaging channel. a generally cylindrical plug body having a nose end, a tail end opposite the nose end, and a lock-engaging channel at a position between the tail end and the nose end; a cable having a first end, a second end, a signal conductor, and a pliable fixing member; a generally tubular retainer for coupling the transducer to a meter body, the retainer having a central passage, an outer surface, and a bore intersecting the central passage; and a locking member; wherein the central passage of the retainer receives at least a portion of the plug body, including the lock-engaging channel, the lock-engaging channel being aligned with the retainer bore; wherein the locking member is at least partially disposed in the retainer bore and the lock-engaging channel.