mhurhangee/ep-ind-claims huggingface dataset:
An implantable medical device, comprising: means for sensing cardiac signals; means for detecting a predetermined event in response to the sensed signals; means for delivering a first therapy during a first delivery period, substantially simultaneous with coupling of a charging circuit and an energy storage device to generate stored energy on the energy storage device, in response to the predetermined event being detected; means for determining whether to deliver the first therapy during a second delivery period subsequent to the first delivery period; means for determining whether there is a predetermined level of stored energy generated on the energy storage device; and means for delivering, in response to the first therapy not being delivered during the second delivery period and the predetermined level of stored energy not being generated on the energy storage device, the first therapy during a third delivery period subsequent to the second delivery period; means for determining if the predetermined event has been terminated during a synchronization period subsequent to delivery of the first therapy during the third delivery period; and means for determining if the predetermined level of stored energy has been generated on the energy storage device; and characterized in that, when the predetermined level of stored energy has been generated, the energy storage device is adapted to retain the energy when the predetermined event has been terminated during the synchronization period. means for sensing cardiac signals; means for detecting a predetermined event in response to the sensed signals; means for delivering a first therapy during a first delivery period, substantially simultaneous with coupling of a charging circuit and an energy storage device to generate stored energy on the energy storage device, in response to the predetermined event being detected; means for determining whether to deliver the first therapy during a second delivery period subsequent to the first delivery period; means for determining whether there is a predetermined level of stored energy generated on the energy storage device; and means for delivering, in response to the first therapy not being delivered during the second delivery period and the predetermined level of stored energy not being generated on the energy storage device, the first therapy during a third delivery period subsequent to the second delivery period; means for determining if the predetermined event has been terminated during a synchronization period subsequent to delivery of the first therapy during the third delivery period; and means for determining if the predetermined level of stored energy has been generated on the energy storage device; and characterized in that, when the predetermined level of stored energy has been generated, the energy storage device is adapted to retain the energy when the predetermined event has been terminated during the synchronization period.
Connection and support bracket for false ceilings, comprising two support and holding seatings (16, 17) intersected with respect to each other in correspondence with a common central area, defining a common support plane to support and position section bars, wherein said support and holding seatings (16, 17) are at least partly defined by multiple-function bodies, each of said multiple-function bodies comprising a lateral wall, a lateral elastic positioning wall and an upper extension wall to which said lateral wall and said lateral elastic positioning wall are connected so as to form the multiple-function bodies, said lateral wall extending vertically with respect to said support plane and being provided with at least an elastic tongue configured to prevent one of said section bars from moving vertically in the respective support and holding seatings (16, 17), and said upper extension wall extending parallel to the support plane and being provided with a fastening mean to which an attachment element to attach covering and enhancing panels of said false ceiling can be fastened.
Method for determining a composition ({C j}, {C' i}) of a gas sample processed by means of gas chromatography, comprising the following steps: - running the sample through a processing chain comprising a gas chromatography column and a gas detector arranged at the outlet of the gas chromatography column, - obtaining, at the output of the gas detector, a representative electrical signal (g k (t)) of the composition ({C j}, {C' i}) of the sample, - determining the composition ({C j}, {C' i}) of the sample using a device for processing this electrical signal, characterized in that the determination of the composition of the sample is performed on the basis of a combination stored in memory: - of a direct probabilistic model ( P j) of the gas chromatography column, this model comprising at least one law of probability defining, for at least one gas species liable to be found in the sample, a probability at each moment that a molecule of this gas species is discharged from the chromatography column, and - an impulse response model ( r j) of the gas detector, and in that the determination step is performed by inverting this combination of models ( P j, r j) using the electrical signal ( g k (t)), the inversion being performed by the processing device having means for accessing the memory. - running the sample through a processing chain comprising a gas chromatography column and a gas detector arranged at the outlet of the gas chromatography column, - obtaining, at the output of the gas detector, a representative electrical signal (g k (t)) of the composition ({C j}, {C' i}) of the sample, - determining the composition ({C j}, {C' i}) of the sample using a device for processing this electrical signal, - of a direct probabilistic model ( P j) of the gas chromatography column, this model comprising at least one law of probability defining, for at least one gas species liable to be found in the sample, a probability at each moment that a molecule of this gas species is discharged from the chromatography column, and - an impulse response model ( r j) of the gas detector,
A communication system, comprising: a light emitting diode - LED - emulator comprising an emulator input to be coupled to a supply generator (V tx) and an emulator output configured to output a sense voltage (V sense), wherein the emulator input is configured to receive a forward current (I F)derived from a modulated supply signal generated by the supply generator, wherein the LED emulator is configured to translate the forward current (I F)into the sense voltage (V sense), wherein the modulated supply signal is modulated according to data to be transmitted; a voltage comparator comprising a comparator input coupled to the emulator output and comprising a comparator output, wherein the voltage comparator is configured to receive the sense voltage (V sense) and translate the sense voltage (V sense) into a modulated output signal (V Mod) based on a communication voltage threshold, wherein the voltage comparator generates the modulated output signal (V Mod) to have a first value on a first condition which is that the sense voltage (V sense) is equal to or greater than the communication voltage threshold and generates the modulated output signal (V Mod) to have a second value on a second condition which is that the sense voltage (V sense) is less than the communication voltage threshold; and a transmitter coupled to the comparator output and configured to receive the modulated output signal (V Mod) and generate a communication signal according to the data to be transmitted based on the modulated output signal (V Mod). a light emitting diode - LED - emulator comprising an emulator input to be coupled to a supply generator (V tx) and an emulator output configured to output a sense voltage (V sense), wherein the emulator input is configured to receive a forward current (I F)derived from a modulated supply signal generated by the supply generator, wherein the LED emulator is configured to translate the forward current (I F)into the sense voltage (V sense), wherein the modulated supply signal is modulated according to data to be transmitted; a voltage comparator comprising a comparator input coupled to the emulator output and comprising a comparator output, wherein the voltage comparator is configured to receive the sense voltage (V sense) and translate the sense voltage (V sense) into a modulated output signal (V Mod) based on a communication voltage threshold, wherein the voltage comparator generates the modulated output signal (V Mod) to have a first value on a first condition which is that the sense voltage (V sense) is equal to or greater than the communication voltage threshold and generates the modulated output signal (V Mod) to have a second value on a second condition which is that the sense voltage (V sense) is less than the communication voltage threshold; and a transmitter coupled to the comparator output and configured to receive the modulated output signal (V Mod) and generate a communication signal according to the data to be transmitted based on the modulated output signal (V Mod).
An assembly comprising: a skid plate module that includes: a skid plate; and first and second pillars (42, 42) that extend from the skid plate and are adapted to be mounted to a chassis, wherein the first and second pillars (42, 42) are disposed along a center plane of the skid plate; first and second lower control arms (254, 254) that are mounted to the first and second pillars (42, 42), respectively; characterized by first and second mounting bracket subassemblies (110, 110') that are mounted to the first and second pillars (42, 42), respectively, for mounting a drivetrain component, wherein the first pillar has a first tube that extends at least partially through the first pillar and at least partially receives the first mounting bracket subassembly, and the first mounting bracket subassembly includes a rod that is disposed in the first tube, a first sleeve that receives the rod, a first bushing that receives the first sleeve and is received in the first tube, and a first mounting plate that extends from the rod and is operatively connected to the drivetrain component. a skid plate module that includes: a skid plate; and first and second pillars (42, 42) that extend from the skid plate and are adapted to be mounted to a chassis, wherein the first and second pillars (42, 42) are disposed along a center plane of the skid plate; a skid plate; and first and second pillars (42, 42) that extend from the skid plate and are adapted to be mounted to a chassis, wherein the first and second pillars (42, 42) are disposed along a center plane of the skid plate; first and second lower control arms (254, 254) that are mounted to the first and second pillars (42, 42), respectively; characterized by first and second mounting bracket subassemblies (110, 110') that are mounted to the first and second pillars (42, 42), respectively, for mounting a drivetrain component, wherein the first pillar has a first tube that extends at least partially through the first pillar and at least partially receives the first mounting bracket subassembly, and the first mounting bracket subassembly includes a rod that is disposed in the first tube, a first sleeve that receives the rod, a first bushing that receives the first sleeve and is received in the first tube, and a first mounting plate that extends from the rod and is operatively connected to the drivetrain component.
An electrical multiphase machine with a stator which includes a winding (5;6) having at least three strands (51, 52, 53; 61, 62) for generating an electromagnetic field, each strand (51, 52, 53; 61, 62) belonging to a different electrical phase; furthermore with a setting device which supplies each strand (51, 52, 53; 61, 62) with a phase current (Ia, Ib, Ic) or phase voltage (Ua, Ub, Uc) in each case as a setting parameter, said setting device including a separate power amplifier (41a, 41b, 41c, 41d) for each strand (51, 52, 53; 61, 62), so that the setting parameter can be regulated for each strand (51, 52, 53; 61, 62) independently of the setting parameters for the other strands (51, 52, 53; 61, 62) and at least one common connection point being provided to which at least three of said strands (51, 52, 53; 61, 62) are connected, characterized in that an additional active control element is provided for shifting the potential of said connection point.
An electrophoretic fluid comprising a first type (11; 21; 31; 41; 51) of pigment particles, a second type (12; 22; 32; 42; 52) of pigment particles and a third type (13; 23; 33; 43; 53) of pigment particles, all of which are dispersed in a solvent or solvent mixture, wherein (a) the first type (11; 21; 31; 41; 51) of pigment particles and the second type (12; 22; 32; 42; 52) of pigment particles carry opposite charge polarities; and (b) the third type (13; 23; 33; 43; 53) of pigment particles has the same charge polarity as the second type (12; 22; 32; 42; 52) of pigment particles but at a lower intensity; the electrophoretic fluid being characterized in that: (c) the second type (12; 22; 32; 42; 52) of pigment particles has a threshold voltage. (a) the first type (11; 21; 31; 41; 51) of pigment particles and the second type (12; 22; 32; 42; 52) of pigment particles carry opposite charge polarities; and (b) the third type (13; 23; 33; 43; 53) of pigment particles has the same charge polarity as the second type (12; 22; 32; 42; 52) of pigment particles but at a lower intensity; the electrophoretic fluid being characterized in that: (c) the second type (12; 22; 32; 42; 52) of pigment particles has a threshold voltage.
A control and navigation device for an autonomously moving system, with - a sensor device, which is configured to acquire sensor data, and has the following for this purpose: - a LiDAR sensor device, which is configured for a 360 degree acquisition; - a fisheye camera device, which is configured for a 360 degree acquisition; and - a radar sensor device, which is configured for 360 degree acquisition; - a data processing device with an Al-based software application, which is configured to determine control signals for the navigation of an autonomously moving system by processing the sensor data; and - a data communication interface, which is connected to the data processing device, and is configured to provide the control signals for transmission to a control device of the autonomously moving system; characterised in that the sensor device, the data processing device and the data communication interface are arranged on a mounting component, which is configured to mount the sensor device, the data processing device, and the data communication interface together as a common assembly on the autonomously moving system in a detachable manner. - a sensor device, which is configured to acquire sensor data, and has the following for this purpose: - a LiDAR sensor device, which is configured for a 360 degree acquisition; - a fisheye camera device, which is configured for a 360 degree acquisition; and - a radar sensor device, which is configured for 360 degree acquisition; - a LiDAR sensor device, which is configured for a 360 degree acquisition; - a fisheye camera device, which is configured for a 360 degree acquisition; and - a radar sensor device, which is configured for 360 degree acquisition; - a data processing device with an Al-based software application, which is configured to determine control signals for the navigation of an autonomously moving system by processing the sensor data; and - a data communication interface, which is connected to the data processing device, and is configured to provide the control signals for transmission to a control device of the autonomously moving system;
A digital signal processing circuit, the circuit comprising at least one ion sensitive field effect transistor and at least one metal oxide semiconductor transistor, configured such that at least one ion sensitive field effect transistor and at least one metal oxide semiconductor transistor together form a CMOS inverter switch.
A cutting apparatus for agricultural crop material, in particular for use on a bale press or a loading wagon, comprising a number of blades which are arranged in a row in mutually juxtaposed relationship in relation to a passage through which crop material flows and which are respectively pivotable about a blade axis extending transversely relatively to the passage between an inoperative position (P A) and an operative position (P B), and clamping units which are associated with the blades and which are movable in engagement with a common adjusting device to pivot the blades from the inoperative position (P A) into the operative position (P B), characterised by a common selecting mechanism which is associated with the clamping units and which can move selected clamping units from an inactive condition (Z inaktiv) in which they are without engagement with the common adjusting device into an active condition (Z aktiv) in which they are in engagement with the common adjusting device.
A method of routing uplink packets from a user equipment, UE, the method comprising: receiving, at a network node, an uplink packet from the UE; the method being characterized in that it further comprises: determining, at the network node, Radio Access Network, RAN, context information associated with the UE that governs downlink communications between the RAN and the UE, the RAN context information including at least one of a downlink transmission schedule, a downlink Quality of Service (QoS) requirement, and one or more downlink transmission parameters; modifying, at the network node, the uplink packet by inserting, into at least a portion of a source address field of the uplink packet, the RAN context information associated with the UE or an index corresponding to the RAN context information associated with the UE, and point of attachment information associated with the UE; and transmitting, at the network node, the modified uplink packet towards a destination. receiving, at a network node, an uplink packet from the UE; the method being characterized in that it further comprises: determining, at the network node, Radio Access Network, RAN, context information associated with the UE that governs downlink communications between the RAN and the UE, the RAN context information including at least one of a downlink transmission schedule, a downlink Quality of Service (QoS) requirement, and one or more downlink transmission parameters; modifying, at the network node, the uplink packet by inserting, into at least a portion of a source address field of the uplink packet, the RAN context information associated with the UE or an index corresponding to the RAN context information associated with the UE, and point of attachment information associated with the UE; and transmitting, at the network node, the modified uplink packet towards a destination. determining, at the network node, Radio Access Network, RAN, context information associated with the UE that governs downlink communications between the RAN and the UE, the RAN context information including at least one of a downlink transmission schedule, a downlink Quality of Service (QoS) requirement, and one or more downlink transmission parameters; modifying, at the network node, the uplink packet by inserting, into at least a portion of a source address field of the uplink packet, the RAN context information associated with the UE or an index corresponding to the RAN context information associated with the UE, and point of attachment information associated with the UE; and transmitting, at the network node, the modified uplink packet towards a destination.
An outdoor unit for an air-conditioning apparatus, comprising: a bottom plate made of metal; a heat exchanger of metal different from the metal of the bottom plate, the heat exchanger having an L-shape in plan view; and a placement plate provided on the bottom plate and having a heat exchanger placement surface on which the heat exchanger is placed, the placement plate having an L-shape in plan view, characterized in that the placement plate is held in contact with the bottom plate by the weight of the heat exchanger only below a short-side end portion, a long-side end portion, and a corner portion of the heat exchanger placement surface of the placement plate. a bottom plate made of metal; a heat exchanger of metal different from the metal of the bottom plate, the heat exchanger having an L-shape in plan view; and a placement plate provided on the bottom plate and having a heat exchanger placement surface on which the heat exchanger is placed, the placement plate having an L-shape in plan view, characterized in that the placement plate is held in contact with the bottom plate by the weight of the heat exchanger only below a short-side end portion, a long-side end portion, and a corner portion of the heat exchanger placement surface of the placement plate.
Smoothing trowel, which comprises a smoothing blade and a handle and in which a handle holder connects the handle to the smoothing blade, the handle holder being connected to the smoothing blade by a plurality of bolts, wherein openings are provided in the smoothing blade and the bolts are guided into these openings, characterised in that the handle holder is connected to the smoothing blade with a plurality of bolts by welded joints.
A method of loading a track maintenance vehicle with bulk material, wherein the latter - after forming a dump cone having a defined bulk material height h s - is moved relative to a bulk material container away from a loading point in a transport- or longitudinal direction of the vehicle and a new dump cone is formed, characterized by the following method steps: a) with the aid of the bulk material height h s, a volume V s of the dump cone formed in the area of the loading point is calculated, b) a force effect caused by the loading is measured at an on-track undercarriage supporting the track maintenance vehicle, and with this the mass m s of the dump cone is calculated, c) with a bulk material density calculated from the volume V s and the mass m s, the maximal dumping height of the dump cone is calculated - in relation to a maximal allowable total loading mass m max for the track maintenance vehicle - and optionally indicated to an operator, and/or the movement of the bulk material away from the loading point is controlled automatically for achieving the maximal allowable total loading mass m max. a) with the aid of the bulk material height h s, a volume V s of the dump cone formed in the area of the loading point is calculated, b) a force effect caused by the loading is measured at an on-track undercarriage supporting the track maintenance vehicle, and with this the mass m s of the dump cone is calculated, c) with a bulk material density calculated from the volume V s and the mass m s, the maximal dumping height of the dump cone is calculated - in relation to a maximal allowable total loading mass m max for the track maintenance vehicle - and optionally indicated to an operator, and/or the movement of the bulk material away from the loading point is controlled automatically for achieving the maximal allowable total loading mass m max.