mhurhangee/ep-ind-claims huggingface dataset:
A fiber optic parking device (60, 60a) comprising: a support wall (70, 70a) having front (72, 72a) and rear (74, 74a) sides; at least one mount (80, 80a) for mounting the fiber optic parking device (60, 60a) to a mounting structure of a terminal frame, the at least one mount (80, 80a) extending outwardly from the rear side (74, 74a) of the support wall and defining a first plane, wherein the support wall (70, 70a) and the at least one mount (80, 80a) are formed integrally as a unitary piece; a platform (76, 76a) extending outwardly from the front side (72, 72a) of the support wall (70, 70a) and defining a second plane, the platform including a plurality of connector slips (100, 100a), wherein each of the connector slips (100, 100a) extends along a corresponding axis parallel to the second plane and intersecting the first plane at an acute angle; and a plurality of partitions (102, 102a) spaced apart from each other to at least partially define the plurality of connector slips (100, 100a). a support wall (70, 70a) having front (72, 72a) and rear (74, 74a) sides; at least one mount (80, 80a) for mounting the fiber optic parking device (60, 60a) to a mounting structure of a terminal frame, the at least one mount (80, 80a) extending outwardly from the rear side (74, 74a) of the support wall and defining a first plane, wherein the support wall (70, 70a) and the at least one mount (80, 80a) are formed integrally as a unitary piece; a platform (76, 76a) extending outwardly from the front side (72, 72a) of the support wall (70, 70a) and defining a second plane, the platform including a plurality of connector slips (100, 100a), wherein each of the connector slips (100, 100a) extends along a corresponding axis parallel to the second plane and intersecting the first plane at an acute angle; and a plurality of partitions (102, 102a) spaced apart from each other to at least partially define the plurality of connector slips (100, 100a).
A method of training an acoustic model, wherein the training includes a data preparation phase implemented on a data preparation subsystem, and a training loop implemented on a training subsystem, wherein the training loop follows the data preparation phase and includes a plurality of successive epochs, said method including: in the data preparation phase: providing time domain training data, wherein the training data are or include at least one example of audio data, extracting at least one feature of the time domain training data, and providing the at least one feature to the training subsystem; during each epoch of the training loop: augmenting the at least one feature, wherein the augmentation occurs in at least one feature domain, thereby generating augmented training data which is temporary and only used during training in one epoch; and using at least some of the augmented training data to train the model, wherein the training data are indicative of features comprising frequency bands, and the augmentation occurs in the frequency domain, and wherein augmenting the at least one feature comprises drawing a random Signal to Noise Ratio, SNR, from an SNR distribution and drawing a random stationary noise spectrum shape from a distribution of noise spectrum shapes, and determining the augmentation as noise whose power as a function of frequency is determined from the drawn random SNR and the drawn random stationary noise spectrum. in the data preparation phase: providing time domain training data, wherein the training data are or include at least one example of audio data, extracting at least one feature of the time domain training data, and providing the at least one feature to the training subsystem; providing time domain training data, wherein the training data are or include at least one example of audio data, extracting at least one feature of the time domain training data, and providing the at least one feature to the training subsystem; during each epoch of the training loop: augmenting the at least one feature, wherein the augmentation occurs in at least one feature domain, thereby generating augmented training data which is temporary and only used during training in one epoch; and using at least some of the augmented training data to train the model, augmenting the at least one feature, wherein the augmentation occurs in at least one feature domain, thereby generating augmented training data which is temporary and only used during training in one epoch; and using at least some of the augmented training data to train the model, wherein the training data are indicative of features comprising frequency bands, and the augmentation occurs in the frequency domain, and wherein augmenting the at least one feature comprises drawing a random Signal to Noise Ratio, SNR, from an SNR distribution and drawing a random stationary noise spectrum shape from a distribution of noise spectrum shapes, and determining the augmentation as noise whose power as a function of frequency is determined from the drawn random SNR and the drawn random stationary noise spectrum.
A turbomachine comprising at least: • a compressor; • a combustion chamber situated downstream from the compressor for combustion of a mixture of fuel and of air coming from the compressor; • a first rotary shaft; • a first turbine for expanding the combustion gas coming from the combustion chamber and driving the compressor via the first rotary shaft; • an actuator device for actuating said first rotary shaft configured to keep the first turbine and the compressor in rotation, in a working made, while the combustion chamber is extinguished; and • a lubrication circuit for lubricating the engine, arranged in such a manner as to lubricate at least one bearing of said first rotary shaft and passing through at least one heat source (15, 15a-15c) including at least one electrical load, the turbomachine being characterized by being configured so that electrical energy, converted at least in part into heat by said at least one electrical load heats up a lubricant in said lubrication circuit when the temperature of the lubricant drops below a first predetermined threshold while the first turbine and the compressor are rotating with the combustion chamber extinguished. • a compressor; • a combustion chamber situated downstream from the compressor for combustion of a mixture of fuel and of air coming from the compressor; • a first rotary shaft; • a first turbine for expanding the combustion gas coming from the combustion chamber and driving the compressor via the first rotary shaft; • an actuator device for actuating said first rotary shaft configured to keep the first turbine and the compressor in rotation, in a working made, while the combustion chamber is extinguished; and • a lubrication circuit for lubricating the engine, arranged in such a manner as to lubricate at least one bearing of said first rotary shaft and passing through at least one heat source (15, 15a-15c) including at least one electrical load, the turbomachine being characterized by being configured so that electrical energy, converted at least in part into heat by said at least one electrical load heats up a lubricant in said lubrication circuit when the temperature of the lubricant drops below a first predetermined threshold while the first turbine and the compressor are rotating with the combustion chamber extinguished.
A method of electron beam welding comprising: splitting the output of an electron beam welder into two components, a pre/post heat ring and a fusion spot by rastering between the pre/post heat ring and a fusion spot, applying the two outputs to a workpiece that is to be welded, traversing the two outputs along the desired weld path, and wherein the fusion spot lies within the pre/post heat ring and travels in tandem with and inside the pre/post heat ring. splitting the output of an electron beam welder into two components, a pre/post heat ring and a fusion spot by rastering between the pre/post heat ring and a fusion spot, applying the two outputs to a workpiece that is to be welded, traversing the two outputs along the desired weld path, and wherein the fusion spot lies within the pre/post heat ring and travels in tandem with and inside the pre/post heat ring.
A treatment system comprising - a diagnostic imaging system, wherein the diagnostic imaging system comprises: - a magnetic resonance imaging system for providing an image representation of at least a portion of a subject of interest positioned in an examination space, - a hyperthermia device for locally heating a target zone within the portion of the subject of interest, and - a control unit for controlling the MR imaging system and the hyperthermia device, wherein the diagnostic imaging system is adapted to provide a diagnostic image representation of the portion of the subject of interest by correlating image representations obtained at different temperatures of the target zone, wherein the diagnostic image representation comprises information on temperature dependent changes of the metabolism of the subject of interest wherein the treatment system is characterized by - a treatment module for applying a treatment to the subject of interest for destroying cells within the target zone, wherein the treatment module is a high power linear accelerator or a chemotherapy/drug release module, and - a control module for controlling the treatment module for applying the treatment based on diagnostic image representations obtained by the diagnostic imaging system. - a diagnostic imaging system, wherein the diagnostic imaging system comprises: - a magnetic resonance imaging system for providing an image representation of at least a portion of a subject of interest positioned in an examination space, - a hyperthermia device for locally heating a target zone within the portion of the subject of interest, and - a control unit for controlling the MR imaging system and the hyperthermia device, - a treatment module for applying a treatment to the subject of interest for destroying cells within the target zone, wherein the treatment module is a high power linear accelerator or a chemotherapy/drug release module, and - a control module for controlling the treatment module for applying the treatment based on diagnostic image representations obtained by the diagnostic imaging system.
A train, comprising: a train formation including a head car, a motor car and an intermediate car, wherein connectors are symmetrically provided on end walls of carriages of the head car, the motor car and the intermediate car along a direction perpendicular to a direction of travel of the train, and each connector on the end wall of the carriage is connected with other connectors on neighbouring carriages by means of wiring; the head car, the motor car and the intermediate car are connected to an electric wiring throughout an entirety of the train by means of the connectors in any formation state; and the train is provided with two parallel power supply wires running throughout the entirety of the train and a plurality of auxiliary power supply systems, wherein an encoder is provided in the train, and the encoder is configured to encode a sequence number of a car and encode a type number of the car, characterized in that: the auxiliary power supply system comprises an auxiliary converter, wherein the auxiliary converters is set on all the cars, and on the basis of identifying the number and type of the carriage by a train control and management system, the auxiliary converters in the motor head car and the motor car are connected to the two parallel power supply wires. wherein connectors are symmetrically provided on end walls of carriages of the head car, the motor car and the intermediate car along a direction perpendicular to a direction of travel of the train, and each connector on the end wall of the carriage is connected with other connectors on neighbouring carriages by means of wiring; the head car, the motor car and the intermediate car are connected to an electric wiring throughout an entirety of the train by means of the connectors in any formation state; and the train is provided with two parallel power supply wires running throughout the entirety of the train and a plurality of auxiliary power supply systems, wherein an encoder is provided in the train, and the encoder is configured to encode a sequence number of a car and encode a type number of the car, characterized in that: the auxiliary power supply system comprises an auxiliary converter, wherein the auxiliary converters is set on all the cars, and on the basis of identifying the number and type of the carriage by a train control and management system, the auxiliary converters in the motor head car and the motor car are connected to the two parallel power supply wires.
An accessory, adapted for a portable electronic device, the portable electronic device comprising a display and a rear surface facing away from the display, the accessory comprising: a cover portion being transparent or semi-transparent and adaptable to cover the display of the portable electronic device; a magnetic portion, disposed within the cover portion, wherein the magnetic portion is constituted by a transparent material and a magnetic material mixed therein; and a shielding portion, disposed within the cover portion, wherein when the cover portion covers the display of the portable electronic device, the magnetic portion is disposed between the shielding portion and the portable electronic device, and when the cover portion is flipped over to the rear surface of the portable electronic device, the shielding portion is disposed between the magnetic portion and the portable electronic device, wherein the magnetic portion is configured to produce a magnetic field being detectable by a sensor of the portable electronic device when the magnetic portion is disposed between the shielding portion and the portable electronic device, and wherein the shielding portion blocks the magnetic field of the magnetic portion from being detectable by the sensor of the portable electronic device when the shielding portion is between the magnetic portion and the portable electronic device. a cover portion being transparent or semi-transparent and adaptable to cover the display of the portable electronic device; a magnetic portion, disposed within the cover portion, wherein the magnetic portion is constituted by a transparent material and a magnetic material mixed therein; and a shielding portion, disposed within the cover portion, wherein when the cover portion covers the display of the portable electronic device, the magnetic portion is disposed between the shielding portion and the portable electronic device, and when the cover portion is flipped over to the rear surface of the portable electronic device, the shielding portion is disposed between the magnetic portion and the portable electronic device, wherein the magnetic portion is configured to produce a magnetic field being detectable by a sensor of the portable electronic device when the magnetic portion is disposed between the shielding portion and the portable electronic device, and wherein the shielding portion blocks the magnetic field of the magnetic portion from being detectable by the sensor of the portable electronic device when the shielding portion is between the magnetic portion and the portable electronic device.
A catheter pump assembly, comprising: a pump including an impeller assembly; a catheter body disposed proximally of and configured to couple with the impeller assembly, the catheter body having a vessel wall contact surface, the catheter body configured to cause the vessel wall contact surface to bear against an outer radius of an aortic arch; and a bending section disposed between the vessel wall contact surface and the impeller assembly, the bending section being more flexible than the catheter body at the location of the vessel wall contact surface such that loads applied distal the vessel wall contact surface result in flexing at the bending section. a pump including an impeller assembly; a catheter body disposed proximally of and configured to couple with the impeller assembly, the catheter body having a vessel wall contact surface, the catheter body configured to cause the vessel wall contact surface to bear against an outer radius of an aortic arch; and a bending section disposed between the vessel wall contact surface and the impeller assembly, the bending section being more flexible than the catheter body at the location of the vessel wall contact surface such that loads applied distal the vessel wall contact surface result in flexing at the bending section.
Drum brake device for a motor vehicle, with a brake member (2, 3) for producing a frictional connection to a rotating component, and with an actuator which can be driven in two movement directions and moves the brake member (2, 3) towards the rotating component and away from the rotating component, and with an adjusting device (15, 115, 215) for compensating for wear of the components which produce the frictional connection, characterized in that the adjusting device (15, 115, 215) is arranged in the component of the actuator, and in that the actuator is configured to drive a spreading actuator (14, 114, 214) in the one drive direction starting from a middle starting position, and to drive the adjusting device (15, 115, 215) in the opposite drive direction starting from the starting position.
A control device (120, 300, 700), for controlling one or more remote loads, comprising: a sensing circuit (280, 314, 714) configured to generate a sensing signal; a processing circuit configured to enter a sleep state when the sensing signal is in a steady state condition; and characterised in comprising: a wake-up logic circuit configured to: generate and pulse-width modulate, PWM, an enable control signal when the processing circuit is in the sleep state to periodically enable and disable the sensing circuit; receive the sensing signal from the sensing circuit; determine that a magnitude of the sensing signal has changed by comparing a present magnitude of the sensing signal to a previous magnitude of the sensing signal; and upon determining that the magnitude of the sensing signal has changed, generate a wake-up signal for causing the processing circuit to change from the sleep state to an active state. a sensing circuit (280, 314, 714) configured to generate a sensing signal; a processing circuit configured to enter a sleep state when the sensing signal is in a steady state condition; and characterised in comprising: a wake-up logic circuit configured to: generate and pulse-width modulate, PWM, an enable control signal when the processing circuit is in the sleep state to periodically enable and disable the sensing circuit; receive the sensing signal from the sensing circuit; determine that a magnitude of the sensing signal has changed by comparing a present magnitude of the sensing signal to a previous magnitude of the sensing signal; and upon determining that the magnitude of the sensing signal has changed, generate a wake-up signal for causing the processing circuit to change from the sleep state to an active state. generate and pulse-width modulate, PWM, an enable control signal when the processing circuit is in the sleep state to periodically enable and disable the sensing circuit; receive the sensing signal from the sensing circuit; determine that a magnitude of the sensing signal has changed by comparing a present magnitude of the sensing signal to a previous magnitude of the sensing signal; and upon determining that the magnitude of the sensing signal has changed, generate a wake-up signal for causing the processing circuit to change from the sleep state to an active state.
A composition for a moisture permeation preventing film for an electronic device, comprising: 1 to 10 wt% of an aerogel that comprises silica; 10 to 50 wt% of a solvent; 0.1 to 5 wt% of an additive that is a surfactant, an antifoaming agent, or a mixture thereof; and a binder as the remainder, the binder comprising silicone oil or at least one selected from the group consisting of a silanol group, an alkoxysilyl group, and polydimethylsiloxane, in a molecule. 1 to 10 wt% of an aerogel that comprises silica; 10 to 50 wt% of a solvent; 0.1 to 5 wt% of an additive that is a surfactant, an antifoaming agent, or a mixture thereof; and a binder as the remainder, the binder comprising silicone oil or at least one selected from the group consisting of a silanol group, an alkoxysilyl group, and polydimethylsiloxane, in a molecule.
A dynamoelectric machine comprising a stator that includes: a stator core; and an armature winding that is mounted to said stator core, wherein: said armature winding comprises a plurality of three-phase windings; a delta-connected three-phase winding is configured by delta-connecting respective phase windings (30 U, 30 V, 30 W) of one of said three-phase windings; a wye-connected three-phase winding is configured by connecting respective phase windings (30 X, 30 Y, 30 Z) of a remainder of said three-phase windings in series to respective output ends of said delta-connected three-phase winding; said plurality of three-phase windings are each installed in said stator core such that respective phase currents have a phase difference from each other; and angles between center lines of adjacent slot opening portions of said stator core have a nonuniform pitch; wherein a turn ratio between said delta-connected three-phase winding and said wye-connected three-phase winding is within a range of 1.25 to 2.25, characterised in that electrical conductors (32, 41) that are loaded inside slots are equal in number in each and every slot. a stator core; and an armature winding that is mounted to said stator core, said armature winding comprises a plurality of three-phase windings; a delta-connected three-phase winding is configured by delta-connecting respective phase windings (30 U, 30 V, 30 W) of one of said three-phase windings; a wye-connected three-phase winding is configured by connecting respective phase windings (30 X, 30 Y, 30 Z) of a remainder of said three-phase windings in series to respective output ends of said delta-connected three-phase winding; said plurality of three-phase windings are each installed in said stator core such that respective phase currents have a phase difference from each other; and angles between center lines of adjacent slot opening portions of said stator core have a nonuniform pitch; wherein a turn ratio between said delta-connected three-phase winding and said wye-connected three-phase winding is within a range of 1.25 to 2.25, characterised in that electrical conductors (32, 41) that are loaded inside slots are equal in number in each and every slot.