mhurhangee/ep-ind-claims huggingface dataset:
A drive system for rotating a cleaning head in a tank, said drive system comprising a housing having a propeller mounted in a liquid channel to which cleaning liquid is supplied under pressure, as well as a gear which is driven by the propeller, and which is mounted separated from the cleaning liquid in the housing, said gear transferring the rotation produced by the propeller to a reduced rotation of the cleaning head in the tank, wherein the rotation produced by the propeller is transferred to the gear via a magnetic coupling having coupling parts of which one coupling part is disposed inside the housing in the liquid channel and another coupling part is disposed outside the housing, and wherein the coupling parts are configured as mutually parallel discs, characterized in that the rotation from the propeller is transferred to the gear via a hysteresis coupling comprising a rotating magnetic inductor or a hysteresis part (11 ") driven by the propeller in the housing, which driven part (8', 11") drives a rotating part (11', 8") mounted outside the housing and being either of a ferromagnetic hysteresis material or a magnetic inductor (8") which is connected with the input shaft of the gear, wherein the coupling part (11', 8") outside the housing may be displaced in an axial direction of the input shaft for variably changing the distance to the cooperating coupling part (8', 11") for variably transferring the torque and/or the speed in the hysteresis coupling.
Supercharged internal combustion engine, in particular in a motor vehicle, - with a fresh air system for feeding fresh air to combustion chambers of a motor block of the internal combustion engine, - with a charging device arranged in the fresh air system, - with an at least two-stage charge air cooling to cool the fresh air downstream of the charging device, - whereby the fresh air system has an intake module connected to the motor block and distributing the fresh air to the combustion chambers and a charge air conduit that leads from the charging device to the intake module, - whereby a first cooling stage of the charge air cooling is formed by a cooler, - whereby a second cooling stage of the charge air cooling is formed by an evaporator of a refrigeration circuit in which a refrigerant circulates, - whereby the evaporator is arranged in the intake module, - whereby the cooler of the first cooling stage is integrated in a cooling circuit in which a coolant circulates, characterised in that - the intake module delimits a housing interior space on a first side, a second side, a third side, a fourth side and on a fifth side of six sides in total, - the evaporator arranged in the housing interior space and the respective cooler arranged in the housing interior space delimit with their front sides (40,43) a sixth side of the housing interior space, - an evaporator front side of the evaporator having refrigerant connections (44,45) and a cooler front side of the respective cooler having coolant connections (41,42) delimit the sixth side of the housing interior space. - with a fresh air system for feeding fresh air to combustion chambers of a motor block of the internal combustion engine, - with a charging device arranged in the fresh air system, - with an at least two-stage charge air cooling to cool the fresh air downstream of the charging device, - whereby the fresh air system has an intake module connected to the motor block and distributing the fresh air to the combustion chambers and a charge air conduit that leads from the charging device to the intake module, - whereby a first cooling stage of the charge air cooling is formed by a cooler, - whereby a second cooling stage of the charge air cooling is formed by an evaporator of a refrigeration circuit in which a refrigerant circulates, - whereby the evaporator is arranged in the intake module, - whereby the cooler of the first cooling stage is integrated in a cooling circuit in which a coolant circulates, - the intake module delimits a housing interior space on a first side, a second side, a third side, a fourth side and on a fifth side of six sides in total, - the evaporator arranged in the housing interior space and the respective cooler arranged in the housing interior space delimit with their front sides (40,43) a sixth side of the housing interior space, - an evaporator front side of the evaporator having refrigerant connections (44,45) and a cooler front side of the respective cooler having coolant connections (41,42) delimit the sixth side of the housing interior space.
A butt-welded joint, consisting of: a pair of steel plates; a first weld metal that is formed at a butting portion of the pair of steel plates, from a first surface side of the pair of steel plates to a second surface side opposite the first surface side by irradiation of a first high-energy density beam from the first surface side; and a second weld metal that is formed by irradiation of a second high-energy density beam to cover an end surface of the first surface side of the first weld metal, and optionally a third weld metal that is formed by a third high-energy density beam to cover an end surface of the second surface side of the first weld metal, wherein a width W 1 of the first weld metal on the first surface and a width W 2 of the second weld metal on the first surface satisfy a following equation <1>, and a depth (D 1) from the first surface of the second weld metal is 2.0 mm to 10.0 mm, wherein a width W 3 of the first weld metal at a center of a plate thickness of the steel plate is 15% or less of the plate thickness of the steel plate, wherein the plate thickness of the steel plate is 30 mm to 200 mm, and wherein, when the third weld metal is present, a width W 4 of the first weld metal on the second surface and a width W 5 of the third weld metal on the second surface of the steel plate satisfy a following equation <2>, and a depth (D 2) from the second surface of the third weld metal is 2.0 mm to 10.0 mm. 1.2 ≤ W 2 / W 1 ≤ 3.5 1.2 ≤ W 5 / W 4 ≤ 3.5 a pair of steel plates; a first weld metal that is formed at a butting portion of the pair of steel plates, from a first surface side of the pair of steel plates to a second surface side opposite the first surface side by irradiation of a first high-energy density beam from the first surface side; and a second weld metal that is formed by irradiation of a second high-energy density beam to cover an end surface of the first surface side of the first weld metal, and optionally a third weld metal that is formed by a third high-energy density beam to cover an end surface of the second surface side of the first weld metal, wherein a width W 1 of the first weld metal on the first surface and a width W 2 of the second weld metal on the first surface satisfy a following equation <1>, and a depth (D 1) from the first surface of the second weld metal is 2.0 mm to 10.0 mm, wherein a width W 3 of the first weld metal at a center of a plate thickness of the steel plate is 15% or less of the plate thickness of the steel plate, wherein the plate thickness of the steel plate is 30 mm to 200 mm, and wherein, when the third weld metal is present, a width W 4 of the first weld metal on the second surface and a width W 5 of the third weld metal on the second surface of the steel plate satisfy a following equation <2>, and a depth (D 2) from the second surface of the third weld metal is 2.0 mm to 10.0 mm. 1.2 ≤ W 2 / W 1 ≤ 3.5 1.2 ≤ W 5 / W 4 ≤ 3.5
A method for quantitating the level of at least two free amino acids in a body fluid sample from a human individual comprising: (a) derivatizing at least two free amino acids in the sample, wherein the free amino acids are selected from phosphoserine, allo-isoleucine, and sulfocysteine; (b) separating the at least two derivatized free amino acids by liquid chromatography; and (c) quantifying the at least two derivatized free amino acids from step (b) using mass spectrometry analysis, wherein the MS is other than tandem MS. (a) derivatizing at least two free amino acids in the sample, wherein the free amino acids are selected from phosphoserine, allo-isoleucine, and sulfocysteine; (b) separating the at least two derivatized free amino acids by liquid chromatography; and (c) quantifying the at least two derivatized free amino acids from step (b) using mass spectrometry analysis, wherein the MS is other than tandem MS.
A hydraulic system for a construction machinery, comprising: a hydraulic pump; a cylinder control valve adapted to control the flow of hydraulic fluid from the hydraulic pump to a hydraulic cylinder; an operating device adapted to operate the cylinder control valve; a regeneration motor adapted to be driven by return fluid from one hydraulic fluid port of the hydraulic cylinder; a regeneration electric motor adapted to convert rotary power of the regeneration motor into electric energy; and a pilot hydraulic pressure source; the hydraulic system characterized by comprising: at least one return fluid control valve (51, 52, 53) adapted to control the flow of the return fluid according to pilot pressure that is led from the pilot hydraulic pressure source in conjunction with an operation on the operating device; at least one solenoid valve (57, 58, 59) for return fluid control valve (51, 52, 53) adapted to control the pilot pressure for driving the return fluid control valve (51, 52, 53); and a malfunction prevention device (64, 65) adapted to be capable of interrupting the delivery of the pilot pressure from the solenoid valve (57, 58, 59) for return fluid control valve (51, 52, 53) to the return fluid control valve (51, 52, 53). a hydraulic pump; a cylinder control valve adapted to control the flow of hydraulic fluid from the hydraulic pump to a hydraulic cylinder; an operating device adapted to operate the cylinder control valve; a regeneration motor adapted to be driven by return fluid from one hydraulic fluid port of the hydraulic cylinder; a regeneration electric motor adapted to convert rotary power of the regeneration motor into electric energy; and a pilot hydraulic pressure source; the hydraulic system characterized by comprising: at least one return fluid control valve (51, 52, 53) adapted to control the flow of the return fluid according to pilot pressure that is led from the pilot hydraulic pressure source in conjunction with an operation on the operating device; at least one solenoid valve (57, 58, 59) for return fluid control valve (51, 52, 53) adapted to control the pilot pressure for driving the return fluid control valve (51, 52, 53); and a malfunction prevention device (64, 65) adapted to be capable of interrupting the delivery of the pilot pressure from the solenoid valve (57, 58, 59) for return fluid control valve (51, 52, 53) to the return fluid control valve (51, 52, 53). at least one return fluid control valve (51, 52, 53) adapted to control the flow of the return fluid according to pilot pressure that is led from the pilot hydraulic pressure source in conjunction with an operation on the operating device; at least one solenoid valve (57, 58, 59) for return fluid control valve (51, 52, 53) adapted to control the pilot pressure for driving the return fluid control valve (51, 52, 53); and a malfunction prevention device (64, 65) adapted to be capable of interrupting the delivery of the pilot pressure from the solenoid valve (57, 58, 59) for return fluid control valve (51, 52, 53) to the return fluid control valve (51, 52, 53).
A nonwoven structure comprising: a scrim with an interior surface and an outer surface, the scrim having a basis weight of from about 8 gsm to about 200 gsm; and, in contact with the interior surface of the scrim, an interior surface of a nonwoven material with an interior surface and an outer surface, the nonwoven material having a basis weight of from about 10 gsm to about 2000 gsm which contains from about 30 weight percent to about 95 weight percent matrix fibers and from about 5 weight percent to about 70 weight percent of a binder where the weight percentages are based on the total weight of the nonwoven material; and deposited on the outer surface of the scrim from about 1 gsm to about 40 gsm of a polymeric coating; and deposited on the outer surface of the nonwoven material from about 1 gsm to about 40 gsm of a second polymeric coating; wherein the nonwoven material is an airfelt or an airlaid nonwoven structure. a scrim with an interior surface and an outer surface, the scrim having a basis weight of from about 8 gsm to about 200 gsm; and, in contact with the interior surface of the scrim, an interior surface of a nonwoven material with an interior surface and an outer surface, the nonwoven material having a basis weight of from about 10 gsm to about 2000 gsm which contains from about 30 weight percent to about 95 weight percent matrix fibers and from about 5 weight percent to about 70 weight percent of a binder where the weight percentages are based on the total weight of the nonwoven material; and deposited on the outer surface of the scrim from about 1 gsm to about 40 gsm of a polymeric coating; and deposited on the outer surface of the nonwoven material from about 1 gsm to about 40 gsm of a second polymeric coating;
A method performed by one or more processing devices for ensuring that a vehicle seat top is qualified for use with a seat base for a vehicle seat, the method comprising: receiving information that identifies a type of vehicle seat top for coupling to the seat base; verifying that the vehicle seat top is authorized for use with the seat base; and in response to verifying, retrieving, based on the received information that identifies the type of vehicle seat top, a pre-determined value of a parameter of a controller of the seat base for isolating vibrations from the vehicle seat top, wherein the predetermined value of the parameter of the controller is tuned for the vehicle seat top. receiving information that identifies a type of vehicle seat top for coupling to the seat base; verifying that the vehicle seat top is authorized for use with the seat base; and in response to verifying, retrieving, based on the received information that identifies the type of vehicle seat top, a pre-determined value of a parameter of a controller of the seat base for isolating vibrations from the vehicle seat top, wherein the predetermined value of the parameter of the controller is tuned for the vehicle seat top.
An in vitro method of identifying a disease-specific immunogenic mutant peptide from a disease tissue in an individual, comprising: a) obtaining a first set of variant-coding sequences based on the genomic sequences of the disease tissue in the individual, each variant-coding sequence having a variation in the sequence compared to a reference sample; b) selecting a second set of expression variant-coding sequences from the first set based on transcriptomic sequences of the disease tissue in the individual; c) selecting a third set of epitope variant-coding sequences from the second set based on predicted ability of the peptides encoded by the expression variant-coding sequences to bind to an MHC class I molecule (MHCI); d) obtaining a plurality of peptides that are bound to an MHCI molecule from the disease tissue; e) subjecting the MHCI-bound peptides to mass spectrometry-based sequencing; f) correlating the mass spectrometry-derived sequence information of the MHCI-bound peptides with the third set of epitope variant-coding sequences; thereby identifying the disease-specific immunogenic mutant peptide. a) obtaining a first set of variant-coding sequences based on the genomic sequences of the disease tissue in the individual, each variant-coding sequence having a variation in the sequence compared to a reference sample; b) selecting a second set of expression variant-coding sequences from the first set based on transcriptomic sequences of the disease tissue in the individual; c) selecting a third set of epitope variant-coding sequences from the second set based on predicted ability of the peptides encoded by the expression variant-coding sequences to bind to an MHC class I molecule (MHCI); d) obtaining a plurality of peptides that are bound to an MHCI molecule from the disease tissue; e) subjecting the MHCI-bound peptides to mass spectrometry-based sequencing; f) correlating the mass spectrometry-derived sequence information of the MHCI-bound peptides with the third set of epitope variant-coding sequences;
A method for managing comments in a processing unit, the method comprising: monitoring multiple sequences of operations involving industrial equipment, the sequences of operations comprising one or more sequences of operations currently being performed using the industrial equipment, wherein the operations are performed in accordance with a recipe containing key performance indicators; detecting a deviation in said key performance indicators wherein said deviation is determined to be an abnormal condition; identifying comments recorded in a processing unit, wherein said comments are associated with prior identified deviations and wherein said comments contain a list of recommended actions to be taken to remedy said abnormal condition; determining whether any of said list of recommended actions are considered by an operator likely to remedy said abnormal condition; implementing one or more of said recommended actions; and inputting a ranking of said comments based on the success of said recommended actions from the list of recommended actions in remedying said abnormal condition, wherein inputting the ranking comprises incrementing or decrementing the ranking of said comments based on operator inputs, the ranking of said comments is communicated to a display means to display a list of top recommended actions to resolve said abnormal condition. monitoring multiple sequences of operations involving industrial equipment, the sequences of operations comprising one or more sequences of operations currently being performed using the industrial equipment, wherein the operations are performed in accordance with a recipe containing key performance indicators; detecting a deviation in said key performance indicators wherein said deviation is determined to be an abnormal condition; identifying comments recorded in a processing unit, wherein said comments are associated with prior identified deviations and wherein said comments contain a list of recommended actions to be taken to remedy said abnormal condition; determining whether any of said list of recommended actions are considered by an operator likely to remedy said abnormal condition; implementing one or more of said recommended actions; and inputting a ranking of said comments based on the success of said recommended actions from the list of recommended actions in remedying said abnormal condition, wherein inputting the ranking comprises incrementing or decrementing the ranking of said comments based on operator inputs, the ranking of said comments is communicated to a display means to display a list of top recommended actions to resolve said abnormal condition.
A motor control device comprising: a control circuit that has a signal output device that outputs a motor control signal by executing current control; a driving circuit that is operated upon reception of the motor control signal to supply driving electric power to a motor; a first voltage detector that detects a first power supply voltage supplied through an electric power line to apply voltage to the driving circuit; and wherein the signal output device limits a current command value computed in the current control to a value at or below a predetermined limiting value, and reduces the limiting value in accordance with an increase in motor speed, and characterised in that it comprises a second voltage detector that detects a second power supply voltage supplied to the control circuit through a control line independent of the electric power line, wherein the signal output device reduces the limiting value in accordance with a decrease in the first power supply voltage, and computes a difference between the second power supply voltage and the first power supply voltage and then reduces the limiting value by a larger amount as the difference increases. a control circuit that has a signal output device that outputs a motor control signal by executing current control; a driving circuit that is operated upon reception of the motor control signal to supply driving electric power to a motor; a first voltage detector that detects a first power supply voltage supplied through an electric power line to apply voltage to the driving circuit; and wherein the signal output device limits a current command value computed in the current control to a value at or below a predetermined limiting value, and reduces the limiting value in accordance with an increase in motor speed, and characterised in that it comprises a second voltage detector that detects a second power supply voltage supplied to the control circuit through a control line independent of the electric power line, wherein the signal output device reduces the limiting value in accordance with a decrease in the first power supply voltage, and computes a difference between the second power supply voltage and the first power supply voltage and then reduces the limiting value by a larger amount as the difference increases.
A method of packaging and sealing small-sized articles, such as confectionery, bouillon cubes or washing tabs, in a partially preheated heat-sealable packaging material, comprising the following steps: a. step A: providing a heat-sealable packaging material. b. step B: providing the small-sized articles, preferably in a row along at least one article track. c. step C: applying thermal energy to the packaging material so that the packaging material is locally heated up in a sealing area (PL, PQ) compared to a functional area differing therefrom. d. step D: forming a package around at least one of the articles from the heated packaging material. e. step E: sealing the package in the sealing area (PL, PQ) of the packaging material. a. step A: providing a heat-sealable packaging material. b. step B: providing the small-sized articles, preferably in a row along at least one article track. c. step C: applying thermal energy to the packaging material so that the packaging material is locally heated up in a sealing area (PL, PQ) compared to a functional area differing therefrom. d. step D: forming a package around at least one of the articles from the heated packaging material. e. step E: sealing the package in the sealing area (PL, PQ) of the packaging material.
A transmitter for transmitting a physical layer protocol data unit, PPDU, having a header, the header having a Scrambler Initialization Field, said transmitter comprising: a scrambler initializer for overloading at least one bit of the Scrambler Initialization Field to carry control information, the control information indicating at least one of: a primary channel to be used by the transmitter; a channel bandwidth to be used by the transmitter; and a MIMO type to be used by the transmitter; and a scrambler for scrambling content in the header following the Scrambler Initialization Field and an associated MAC frame or a portion of the MAC frame based on a scrambler initialization value conveyed via the Scrambler Initialization Field. a scrambler initializer for overloading at least one bit of the Scrambler Initialization Field to carry control information, the control information indicating at least one of: a primary channel to be used by the transmitter; a channel bandwidth to be used by the transmitter; and a MIMO type to be used by the transmitter; and a scrambler for scrambling content in the header following the Scrambler Initialization Field and an associated MAC frame or a portion of the MAC frame based on a scrambler initialization value conveyed via the Scrambler Initialization Field.