mhurhangee/patent-ind-claim-en huggingface dataset:
Switch , in particular an electronic tripping device, comprising a sensing member for sensing electric current arranged to inductively sense an electric current flowing through a line for conducting electric current which passes through the switch , which switch comprises a measuring member connected to the sensing member and arranged to deliver, at an output , a voltage corresponding to the electric current sensed by the sensing member , which switch comprises a tripping member connected to said output of the measuring member , the tripping member comprising a relay for activating a switching mechanism for interrupting the line for conducting electric current when the voltage delivered by the measuring member exceeds a first predetermined threshold, said switch comprises a detector connected to the output of the measuring member , said detector being arranged to detect the activation of the switching mechanism by the measuring member and by the tripping member and to produce a first state signal when the activation of the switching mechanism by the measuring member and by the tripping member has been detected, said switch is characterized in that the detector is arranged to detect a voltage peak which appears at the output when the switching mechanism is activated and is arranged to produce the first state signal on the basis of said detection of the voltage peak , said switch comprises a processing unit , the detector is connected to a first input of a processing unit in order to deliver the first state signal thereto, which processing unit comprises a second input arranged to receive a second state signal indicating a mechanical interruption of the line for conducting electric current, which processing unit is arranged to produce, on the basis of the received state signals, a message about the interruption of the current line and comprising the cause of this interruption.
Installation device, which is configured as a motion sensor or smoke detector, for mounting in an opening in a ceiling , which is formed of material in panel form, of a building, with a housing , which has a housing portion which can be inserted into the opening and which has a second, flange-like housing portion which is arranged outside of the opening and which has a larger diameter than the opening and which, after insertion, can be brought into flush contact with the underside of the ceiling , and also with spring-loaded spreading arms which are arranged in the region of the first housing portion and which are urged by spring-elastic means from a radially inner insertion position into a radially expanded spreading position, wherein the first housing portion has arranged thereon a claw element which has an eccentric threaded bore formed therein and which, by rotating a screw engaging in the threaded bore , is movable in a first direction of rotation in the axial direction towards the flange-like housing portion from an insertion position into a clamping position, and the second flange-like housing portion has placed thereon, in succession, a covering cap, which is designed as a lens or diffuser disc and which covers the interior of the housing , and a fastening element which is placed on said covering cap and takes the form of a peripheral frame.
Ripper device for opening cracks in the soil, selected from a stubble clearer and a decompactor, the device comprising a leg to which a ripper tool (10; 10a; 10c; 10d; 10e; 10f; 10g) is attached, the tool comprising an attachment support , for detachably attaching the tool to the leg , and a coulter , mounted detachably on the attachment support , the device being characterized in that the leg has longitudinal passage holes for the passage of fixing bolts for attaching the ripper tool to the leg, the said longitudinal passage holes opening onto the rear edge face of the leg, and the attachment support having longitudinal holes for receiving the said bolts, the said longitudinal receiving holes opening onto the rear edge face of the said attachment support, the ripper device further comprising a plate attached to the rear edge face of the leg by means of the said bolts , the said plate: - comprising a lower end received in a housing formed for that purpose in the attachment support, or - being attached to a spike comprising a head intended to form a leading edge of the ripper tool and a shank , the said spike being attached to a lower end of the attachment support or to the coulter. - comprising a lower end received in a housing formed for that purpose in the attachment support, or - being attached to a spike comprising a head intended to form a leading edge of the ripper tool and a shank , the said spike being attached to a lower end of the attachment support or to the coulter.
A method of signal processing for generating electrode stimulation signals for stimulation contacts in an implanted cochlear implant electrode array, the method comprising: transforming an input sound signal into a plurality of band pass signals each representing an associated frequency band of audio frequencies; processing the band pass signals in a sequence of sampling time frames, wherein for each time frame, the processing includes: i . performing a spectral feature analysis of the band pass signals, including determining a difference in amplitude between each band pass signal and that of adjacent band pass signals, and ii . dynamically assigning a stimulation focus pattern to one or more of the band pass signals based on whether the difference in amplitude between each band pass signal and its adjacent band pass signals is greater than a focus threshold values; and coding the processed band pass signals for each time frame to produce the electrode stimulation signals. transforming an input sound signal into a plurality of band pass signals each representing an associated frequency band of audio frequencies; processing the band pass signals in a sequence of sampling time frames, wherein for each time frame, the processing includes: i . performing a spectral feature analysis of the band pass signals, including determining a difference in amplitude between each band pass signal and that of adjacent band pass signals, and ii . dynamically assigning a stimulation focus pattern to one or more of the band pass signals based on whether the difference in amplitude between each band pass signal and its adjacent band pass signals is greater than a focus threshold values; and i . performing a spectral feature analysis of the band pass signals, including determining a difference in amplitude between each band pass signal and that of adjacent band pass signals, and ii . dynamically assigning a stimulation focus pattern to one or more of the band pass signals based on whether the difference in amplitude between each band pass signal and its adjacent band pass signals is greater than a focus threshold values; and coding the processed band pass signals for each time frame to produce the electrode stimulation signals.
A wound dressing , for absorbing exudate from a wound on which the wound dressing is placed, which includes a porous absorptive fiber dressing, comprising two layers of a first absorbent material and in the form of a non-woven fabric, a layer of a second absorbent material in the form of a woven mesh fabric, sandwiched there between ; the layers of absorbent material being attached to each other such that fibres of the two layers of the first absorbent material protrude through the second absorbent material, to form a cross action structure, and a negative surface charge on the first absorbent material.
A cooling system for an internal combustion engine, the cooling system comprising: a radiator ; a main cooling passage provided within an engine housing of the engine, the main cooling passage configured to carry a bulk flow of coolant to cool the engine housing; a main cooling duct configured to provide coolant from the radiator to the main cooling passage and to receive coolant from the main cooling passage; at least one additional cooling duct , wherein the additional cooling duct branches from the main cooling duct downstream of the radiator; and one or more additional cooling passages provided within the engine housing, the or each additional cooling passage configured to introduce a flow of coolant midstream into the flow of coolant in the main cooling passage, wherein the additional cooling passages receive coolant from the radiator via the additional cooling ducts; wherein the engine housing comprises one or more high temperature regions , which are at a higher temperature than one or more low temperature regions of the engine housing; and wherein the additional cooling passages are configured to direct the introduced coolant towards the one or more high temperature regions, wherein the cooling system further comprises one or more additional coolant pumps provided in each additional cooling duct, the additional coolant pumps configured to pump the coolant passing through the additional cooling passages, characterised in that the flow of coolant within the main cooling passage is driven by thermosyphoning, in such a way that no pump is provided in the main cooling duct and in the main cooling passage. a radiator ; a main cooling passage provided within an engine housing of the engine, the main cooling passage configured to carry a bulk flow of coolant to cool the engine housing; a main cooling duct configured to provide coolant from the radiator to the main cooling passage and to receive coolant from the main cooling passage; at least one additional cooling duct , wherein the additional cooling duct branches from the main cooling duct downstream of the radiator; and one or more additional cooling passages provided within the engine housing, the or each additional cooling passage configured to introduce a flow of coolant midstream into the flow of coolant in the main cooling passage, wherein the additional cooling passages receive coolant from the radiator via the additional cooling ducts; wherein the engine housing comprises one or more high temperature regions , which are at a higher temperature than one or more low temperature regions of the engine housing; and wherein the additional cooling passages are configured to direct the introduced coolant towards the one or more high temperature regions, wherein the cooling system further comprises one or more additional coolant pumps provided in each additional cooling duct, the additional coolant pumps configured to pump the coolant passing through the additional cooling passages, characterised in that the flow of coolant within the main cooling passage is driven by thermosyphoning, in such a way that no pump is provided in the main cooling duct and in the main cooling passage.
A dishwasher comprising a body ; a washing tub which is disposed in the body and wherein the washing process is performed; at least one rack which is disposed in the washing tub and whereon the kitchen items are placed; at least one spraying member which sprays water onto the rack ; and a plurality of horizontal wires which form the base of the rack , a plurality of placement members which can be attached onto the horizontal wires so as to slide thereon and which have inclined vertical wires suitable for placing plates thereon; a spacer which is provided between the placement members ; and a movement mechanism which enables the length of the spacer to be changed with the placement member sliding on the horizontal wires wherein the spacer is provided on the placement member , characterized in that the placement members are attached to the each other via the spacer so as to slidably move one over the other.
A user equipment, UE , for a wireless communication system, the UE comprising: a transceiver configured to transmit or receive a signal; and a controller coupled with the transceiver and configured to: receive, from a base station via a radio resource control, RRC, signaling, configuration information including first information for configuring a set of channel state information-reference signal, CSI-RS, resources, wherein a CSI-RS resource among the set of CSI-RS resources is configured as aperiodic and the CSI-RS resource corresponds to an aperiodic channel state information, CSI, report, receive, from the base station , downlink control information, DCI, including a CSI request field, wherein the CSI request field indicates the CSI-RS resource corresponding to the aperiodic CSI report among the set of CSI-RS resources, and transmit, to the base station , the aperiodic CSI report based on the DCI. a transceiver configured to transmit or receive a signal; and a controller coupled with the transceiver and configured to: receive, from a base station via a radio resource control, RRC, signaling, configuration information including first information for configuring a set of channel state information-reference signal, CSI-RS, resources, wherein a CSI-RS resource among the set of CSI-RS resources is configured as aperiodic and the CSI-RS resource corresponds to an aperiodic channel state information, CSI, report, receive, from the base station , downlink control information, DCI, including a CSI request field, wherein the CSI request field indicates the CSI-RS resource corresponding to the aperiodic CSI report among the set of CSI-RS resources, and transmit, to the base station , the aperiodic CSI report based on the DCI. receive, from a base station via a radio resource control, RRC, signaling, configuration information including first information for configuring a set of channel state information-reference signal, CSI-RS, resources, wherein a CSI-RS resource among the set of CSI-RS resources is configured as aperiodic and the CSI-RS resource corresponds to an aperiodic channel state information, CSI, report, receive, from the base station , downlink control information, DCI, including a CSI request field, wherein the CSI request field indicates the CSI-RS resource corresponding to the aperiodic CSI report among the set of CSI-RS resources, and transmit, to the base station , the aperiodic CSI report based on the DCI.
Vehicle for machining a rail by grinding and/or planing, comprising a mobile chassis and a metal abrasive module for grinding and/or planning a rail, the metal abrasive module comprising - an eccentric drive performing an eccentric movement, - at least two abrasive blocks connected with the eccentric drive , and - a force exerting drive pressing at least one abrasive block onto the rail , wherein the metal abrasive module and/or at least one of the abrasive blocks is tiltable around an axis parallel to the rail, and wherein at least one of the abrasive blocks is individually pressable onto the rail. comprising a mobile chassis and a metal abrasive module for grinding and/or planning a rail, the metal abrasive module comprising - an eccentric drive performing an eccentric movement, - at least two abrasive blocks connected with the eccentric drive , and - a force exerting drive pressing at least one abrasive block onto the rail , - an eccentric drive performing an eccentric movement, - at least two abrasive blocks connected with the eccentric drive , and - a force exerting drive pressing at least one abrasive block onto the rail , wherein the metal abrasive module and/or at least one of the abrasive blocks is tiltable around an axis parallel to the rail, and wherein at least one of the abrasive blocks is individually pressable onto the rail.
A composition, comprising at least one copolymer comprising: a) from 20 to 90 percent by weight of one or more vinylidene substituted aromatic compounds; b) from 10 to 80 percent by weight of one or more cyclic (meth)acrylate esters, wherein the cyclic (meth)acrylate esters are polycyclic (meth)acrylate esters; c) from 0 to 40 percent by weight of one or more unsaturated nitriles; and, d) from 0 to 60 percent by weight of one or more alkyl (meth)acrylates; and, an impact modifier, wherein the weight percentage is based on the weight of the copolymer and the copolymer has a weight average molecular weight of 120,000 g/mol or greater determined by gel permeation chromatography using polystyrene standards and a glass transition temperature of 100 °C or greater as measured by differential scanning calorimetry. a) from 20 to 90 percent by weight of one or more vinylidene substituted aromatic compounds; b) from 10 to 80 percent by weight of one or more cyclic (meth)acrylate esters, wherein the cyclic (meth)acrylate esters are polycyclic (meth)acrylate esters; c) from 0 to 40 percent by weight of one or more unsaturated nitriles; and, d) from 0 to 60 percent by weight of one or more alkyl (meth)acrylates; and,
A method for controlling operation of an aircraft , comprising: receiving at least one yaw command from an operator control; determining at least one actual induced roll based at least in part on the at least one yaw command; generating and sending a yaw signal to at least one first flight control component of the aircraft to cause a yaw motion in the aircraft, the yaw signal based at least in part on the at least one yaw command; generating and sending a roll-countering command to at least one second flight control component to counter the at least one actual induced roll; determining a standardized roll rate command based at least in part on the yaw command; and sending the standardized roll rate command to at least one third flight control component to cause a standardized roll motion in the aircraft. receiving at least one yaw command from an operator control; determining at least one actual induced roll based at least in part on the at least one yaw command; generating and sending a yaw signal to at least one first flight control component of the aircraft to cause a yaw motion in the aircraft, the yaw signal based at least in part on the at least one yaw command; generating and sending a roll-countering command to at least one second flight control component to counter the at least one actual induced roll; determining a standardized roll rate command based at least in part on the yaw command; and sending the standardized roll rate command to at least one third flight control component to cause a standardized roll motion in the aircraft.
An agricultural piston bale press , comprising: - a frame ; - a pressing piston arranged in a bale chamber to form bales of crop material; - a main drive mechanism to drive the pressing piston; - an intake device to take in crop material, and - a stuffing device to stuff crop material taken in by the intake device and to load the stuffed crop material to the bale chamber, wherein the stuffing device comprises a feed passage and a stuffing mechanism , the stuffing mechanism comprising a tine arm supporting tines , which tines can be moved along at least one stuffing trajectory (B) to stuff crop material in the feed passage, and a drive mechanism to drive the tine arm, wherein the tine arm comprises a first end and a second end wherein the tine arm further comprises a first pivot axis mounted on a rotation element , the rotation element being mounted on the frame at a second pivot axis ; wherein the drive mechanism comprises a crank mechanism connected to the first end of the tine arm and a rotational drive connected to the rotation element , the drive mechanism being configured to move the tine arm in a cyclic movement along a constant trajectory (X), characterised in that , the second end of the tine arm pivotally supporting the tines on the tine arm so that the tines can be arranged in different positions with respect to the second end of the tine arm to follow different trajectories, in that the stuffing mechanism is configured to move the tines between an extended position and a retracted position with respect to the second end of the tine arm during the stuffing trajectory (B), and in that the tines can be arranged in one or more positions with respect to the second end of the tine arm to follow a stuffing trajectory (B) and in one or more positions to follow a load trajectory (A) to load stuffed crop material from the feed passage into the bale chamber . - a frame ; - a pressing piston arranged in a bale chamber to form bales of crop material; - a main drive mechanism to drive the pressing piston; - an intake device to take in crop material, and - a stuffing device to stuff crop material taken in by the intake device and to load the stuffed crop material to the bale chamber,
A method for classifying products manufactured via an industrial production manufacturing process as faulty or not faulty, the method comprising: receiving, by a processor , a labelled input dataset from one or more sensors; generating, by the processor , at least first and second instances of a first classifier; training, by the processor , the first and second instances of the first classifier based on the labelled input dataset; training, by the processor , a second classifier based on the labelled input dataset, wherein the second classifier is configured to learn a representation of a latent space associated with the labelled input dataset; generating, by the processor , a first supplemental dataset in the latent space, wherein the first supplemental dataset is an unlabeled dataset; generating, by the processor , a first prediction for labeling the first supplemental dataset based on the first instance of the first classifier; generating, by the processor , a second prediction for labeling the first supplemental dataset based on the second instance of the first classifier; generating, by the processor , labeling annotations for the first supplemental dataset based on the first prediction and the second prediction; and training, by the processor , a third classifier based on at least the labelled input dataset and the annotated first supplemental dataset, wherein the trained third classifier is configured to receive sensor data for a product to be classified, to output a prediction for the product based on the received data, wherein the prediction is a "faulty" or "non faulty" classification. receiving, by a processor , a labelled input dataset from one or more sensors; generating, by the processor , at least first and second instances of a first classifier; training, by the processor , the first and second instances of the first classifier based on the labelled input dataset; training, by the processor , a second classifier based on the labelled input dataset, wherein the second classifier is configured to learn a representation of a latent space associated with the labelled input dataset; generating, by the processor , a first supplemental dataset in the latent space, wherein the first supplemental dataset is an unlabeled dataset; generating, by the processor , a first prediction for labeling the first supplemental dataset based on the first instance of the first classifier; generating, by the processor , a second prediction for labeling the first supplemental dataset based on the second instance of the first classifier; generating, by the processor , labeling annotations for the first supplemental dataset based on the first prediction and the second prediction; and training, by the processor , a third classifier based on at least the labelled input dataset and the annotated first supplemental dataset, wherein the trained third classifier is configured to receive sensor data for a product to be classified, to output a prediction for the product based on the received data, wherein the prediction is a "faulty" or "non faulty" classification.