mhurhangee/ep-ind-claims huggingface dataset:
Three-phase two-level power electronics assembly comprising a thermally conductive base plate, a heat dissipation unit, mounted on a first face of the base plate, connectors (26, 28, 30) for three-phase AC output (AC1, AC2, AC3), chopper DC outputs (BC1, BC2), and two poles of a DC link (DC+, DC-), and a set of power electronic devices (16, 18) mounted on a second face of the base plate, whereby the power electronic devices (16, 18) are arranged within the three-phase two-level power electronics assembly in rows to provide a three phase AC output (AC1, AC2, AC3) as well as chopper DC outputs (BC1, BC2) and connected to the respective connectors (26, 28, 30), characterized in that the rows connected to the three-phase AC output (AC1, AC2, AC3) and the rows connected to the chopper DC outputs (BC1, BC2) are alternately arranged on the base plate. a thermally conductive base plate, a heat dissipation unit, mounted on a first face of the base plate, connectors (26, 28, 30) for three-phase AC output (AC1, AC2, AC3), chopper DC outputs (BC1, BC2), and two poles of a DC link (DC+, DC-), and a set of power electronic devices (16, 18) mounted on a second face of the base plate, whereby the power electronic devices (16, 18) are arranged within the three-phase two-level power electronics assembly in rows to provide a three phase AC output (AC1, AC2, AC3) as well as chopper DC outputs (BC1, BC2) and connected to the respective connectors (26, 28, 30), characterized in that the rows connected to the three-phase AC output (AC1, AC2, AC3) and the rows connected to the chopper DC outputs (BC1, BC2) are alternately arranged on the base plate.
A display device comprising: a display panel; a frame disposed in the rear of the display panel; a backlight unit disposed between the display panel and the frame; at least one optical layer disposed between the display panel and the backlight unit; a driver disposed in the rear of the frame; and a back cover disposed in the rear of the driver, wherein the backlight unit includes: a substrate including a plurality of subsidiary substrates; a plurality of light sources disposed on the plurality of subsidiary substrates and configured to emit light; and an adhesive layer including a plurality of subsidiary adhesive layers (2000, 2010, 2020) spaced apart from one another, positioned between the frame and the substrate, and attached to the frame and the substrate; wherein the plurality of subsidiary substrates include first, second and third subsidiary substrates (211, 212, 213, 214) being adjacent to one another, wherein the adhesive layer includes a first subsidiary adhesive layer attached to the first and second subsidiary substrates and a second subsidiary adhesive layer attached to the second and third subsidiary substrates. a display panel; a frame disposed in the rear of the display panel; a backlight unit disposed between the display panel and the frame; at least one optical layer disposed between the display panel and the backlight unit; a driver disposed in the rear of the frame; and a back cover disposed in the rear of the driver, wherein the backlight unit includes: a substrate including a plurality of subsidiary substrates; a plurality of light sources disposed on the plurality of subsidiary substrates and configured to emit light; and an adhesive layer including a plurality of subsidiary adhesive layers (2000, 2010, 2020) spaced apart from one another, positioned between the frame and the substrate, and attached to the frame and the substrate; wherein the plurality of subsidiary substrates include first, second and third subsidiary substrates (211, 212, 213, 214) being adjacent to one another, wherein the adhesive layer includes a first subsidiary adhesive layer attached to the first and second subsidiary substrates and a second subsidiary adhesive layer attached to the second and third subsidiary substrates. a substrate including a plurality of subsidiary substrates; a plurality of light sources disposed on the plurality of subsidiary substrates and configured to emit light; and an adhesive layer including a plurality of subsidiary adhesive layers (2000, 2010, 2020) spaced apart from one another, positioned between the frame and the substrate, and attached to the frame and the substrate; wherein the plurality of subsidiary substrates include first, second and third subsidiary substrates (211, 212, 213, 214) being adjacent to one another, wherein the adhesive layer includes a first subsidiary adhesive layer attached to the first and second subsidiary substrates and a second subsidiary adhesive layer attached to the second and third subsidiary substrates.
An arrangement in or near a wheel well of a vehicle, comprising at least one passage (11; 21) providing fluid communication between the engine compartment and the wheel well to permit airflow out of the engine compartment to dissipate heat, wherein the at least one passage (11; 21) is non-straight in order to prevent ingress of water into the engine compartment, characterised in that the at least one passage is delimited by two walls (12; 22) defining the non-straight passage, wherein the walls each comprise at least two wall sections (12a, 12b; 22a, 22b) delimiting an upstream portion and a downstream portion of the passage with respect to the direction of airflow through the passage, such that at least one change of direction is provided between the upstream portion and the downstream portion.
A voice wakeup method, at a cloud server, characterized by comprising: receiving an identifier of a smart device and wakeup words in voice form from the smart device when the smart device is in a standby state; performing voice recognition and semantic parsing for the wakeup words in the voice form to obtain wakeup words in the form of words; obtaining pre-stored wakeup words corresponding to the smart device according to the identifier of the smart device; judging and determining whether the received wakeup words are consistent with the pre-stored wakeup words; sending a wakeup prompt to the smart device so that the smart device enters the voice recognition phase; receiving the identifier of the smart device and a first request in voice form from the smart device; performing service satisfaction processing for the first service request; receiving an identifier of the smart device and wakeup words in voice form from the smart device; performing voice recognition and semantic parsing for the wakeup words in voice form to obtain wakeup words in the form of words; obtaining pre-stored wakeup words of the smart device according to the identifier of the smart device; judging and determining that the received wakeup words are consistent with the pre-stored wakeup words; determining that the received first request is used to re-wake up the smart device and stop performing service satisfaction processing for the first service request; and sending a re-wakeup instruction message to the smart device. receiving an identifier of a smart device and wakeup words in voice form from the smart device when the smart device is in a standby state; performing voice recognition and semantic parsing for the wakeup words in the voice form to obtain wakeup words in the form of words; obtaining pre-stored wakeup words corresponding to the smart device according to the identifier of the smart device; judging and determining whether the received wakeup words are consistent with the pre-stored wakeup words; sending a wakeup prompt to the smart device so that the smart device enters the voice recognition phase; receiving the identifier of the smart device and a first request in voice form from the smart device; performing service satisfaction processing for the first service request; receiving an identifier of the smart device and wakeup words in voice form from the smart device; performing voice recognition and semantic parsing for the wakeup words in voice form to obtain wakeup words in the form of words; obtaining pre-stored wakeup words of the smart device according to the identifier of the smart device; judging and determining that the received wakeup words are consistent with the pre-stored wakeup words; determining that the received first request is used to re-wake up the smart device and stop performing service satisfaction processing for the first service request; and sending a re-wakeup instruction message to the smart device.
Assembly line for the assembly of an article comprising a plurality of components (4, 8, 12, 18) connected by rivets (6, 10, 14) inserted in holes provided with respective hole axes (W1, W2, W3), comprising: - a transport system comprising a plurality of pallets moved along a horizontal advancement direction, said pallets being suitable to support said article in the course of assembly so that said hole axes (W1, W2, W3) are orthogonal to the advancement direction; - a riveting machine arranged along the advancement direction, comprising a stop device having a stop and a riveting device having a crushing head, wherein the said stop device and said riveting device flank the pallet on opposite sides; said assembly line being characterized in that the stop, and the crushing head are translatable along a transverse direction horizontal and orthogonal to the advancement direction to approach the article from opposite sides during assembly. - a transport system comprising a plurality of pallets moved along a horizontal advancement direction, said pallets being suitable to support said article in the course of assembly so that said hole axes (W1, W2, W3) are orthogonal to the advancement direction; - a riveting machine arranged along the advancement direction, comprising a stop device having a stop and a riveting device having a crushing head, wherein the said stop device and said riveting device flank the pallet on opposite sides; said assembly line being characterized in that the stop, and the crushing head are translatable along a transverse direction horizontal and orthogonal to the advancement direction to approach the article from opposite sides during assembly.
Method for determining the particle size distribution of granular material consisting of solid particles having different particle sizes comprising the steps: - moving the solid particles in a delivery direction in a delivery flow, - controlling the flow energy of the delivery flow in such a manner that this is kept constant, - wherein the flow energy is determined by the velocity and concentration or bulk density of the solid particles of the granular material, - wherein the solid particles in the delivery flow having constant flow energy collide with at least one impact body adapted as a waveguide and generate acoustic signals which propagate in each impact body as solid-borne sound waves, - recording the acoustic signals and converting into electrical signals with the aid of at least one vibration sensor and - signal processing of the electrical signals of each vibration sensor to determine the particle size distribution - wherein the flow energy is kept constant whereby - a container is filled discontinuously with a constant quantity of solid particles as disperse phase and a constant quantity of a liquid dispersion medium and - the dispersion is set into a rotational motion at constant speed so that the solid particles in the dispersion collide with the impact body projecting into the container. - moving the solid particles in a delivery direction in a delivery flow, - controlling the flow energy of the delivery flow in such a manner that this is kept constant, - wherein the flow energy is determined by the velocity and concentration or bulk density of the solid particles of the granular material, - wherein the solid particles in the delivery flow having constant flow energy collide with at least one impact body adapted as a waveguide and generate acoustic signals which propagate in each impact body as solid-borne sound waves, - recording the acoustic signals and converting into electrical signals with the aid of at least one vibration sensor and - signal processing of the electrical signals of each vibration sensor to determine the particle size distribution - wherein the flow energy is kept constant whereby - a container is filled discontinuously with a constant quantity of solid particles as disperse phase and a constant quantity of a liquid dispersion medium and - the dispersion is set into a rotational motion at constant speed so that the solid particles in the dispersion collide with the impact body projecting into the container. - a container is filled discontinuously with a constant quantity of solid particles as disperse phase and a constant quantity of a liquid dispersion medium and - the dispersion is set into a rotational motion at constant speed so that the solid particles in the dispersion collide with the impact body projecting into the container.
An adapter apparatus, characterized in that the apparatus comprises: an integrity detecting unit, configured to perform integrity detection for first multimedia message data to determine that the first multimedia message data is integrated; and a data import unit, configured to import the first multimedia message data from a mobile storage apparatus into a terminal; wherein the integrity detecting unit comprises: a multimedia message data header detecting module, configured to detect whether a data header of the multimedia message data contains predetermined key information; and a multimedia message data body detecting module, configured to detect whether a data body of the multimedia message data contains a predetermined file, and configured to resolve the predetermined file and search whether the predetermined file contains a predetermined content in a situation where the data body of the multimedia message data contains the predetermined file. an integrity detecting unit, configured to perform integrity detection for first multimedia message data to determine that the first multimedia message data is integrated; and a data import unit, configured to import the first multimedia message data from a mobile storage apparatus into a terminal; wherein the integrity detecting unit comprises: a multimedia message data header detecting module, configured to detect whether a data header of the multimedia message data contains predetermined key information; and a multimedia message data body detecting module, configured to detect whether a data body of the multimedia message data contains a predetermined file, and configured to resolve the predetermined file and search whether the predetermined file contains a predetermined content in a situation where the data body of the multimedia message data contains the predetermined file. a multimedia message data header detecting module, configured to detect whether a data header of the multimedia message data contains predetermined key information; and a multimedia message data body detecting module, configured to detect whether a data body of the multimedia message data contains a predetermined file, and configured to resolve the predetermined file and search whether the predetermined file contains a predetermined content in a situation where the data body of the multimedia message data contains the predetermined file.
Mirror assembly, comprising a mirror head, a bracket fastened to the mirror head, and fastening elements located at the bracket at a distance from the mirror head and connectable to the wing mirror of a vehicle, which bracket comprises bracket parts (7, 8) joined in a longitudinal direction and mutually connected through a pivoting means, wherein a bracket part faces towards the mirror head relatively to the pivoting means and another bracket part faces away from the mirror head relatively to the pivoting means, wherein one of the fastening elements is located at the bracket part facing the mirror head and another of the fastening elements is located at the bracket part facing away from the mirror head.
An X-ray imaging apparatus comprising: a movable X-ray irradiation module to irradiate an object with X-rays; an X-ray detection module including a movable X-ray detector to detect X-rays from the X-ray irradiation module; a touch sensor device to sense a touch, installed to the X-ray detection module; characterized in that the touch sensor device is located in a movement direction of the X-ray detector, wherein at least one of the X-ray irradiation module and the X-ray detector is moved to a position where the touch is sensed if the touch sensor device senses the touch. a movable X-ray irradiation module to irradiate an object with X-rays; an X-ray detection module including a movable X-ray detector to detect X-rays from the X-ray irradiation module; a touch sensor device to sense a touch, installed to the X-ray detection module; characterized in that the touch sensor device is located in a movement direction of the X-ray detector, wherein at least one of the X-ray irradiation module and the X-ray detector is moved to a position where the touch is sensed if the touch sensor device senses the touch.
A DI-circuit breaker device with a summation current converter for detecting fault currents in a phase conductor and a neutral conductor and with an identification device for identifying fault states of a protective ground conductor, wherein the identification device is connected, on the input side, to the phase conductor, the neutral conductor and the protective ground conductor and, on the output side, to a switching stage for controlling a DI-circuit breaker, wherein the DI-circuit breaker is adapted to switch switching contacts (25, 26, 27) in the phase conductor, the neutral conductor and the protective ground conductor, wherein the identification device identifies the presence of a phase voltage on the protective ground conductor as a fault state, wherein the identification device has a capacitive sensor which, when touched by a user, forms an electric capacitor with a capacitive reactance with respect to earth potential, characterised in that the identification device further has evaluating electronics which are adapted to determine a phase position by connecting the sensor to the phase conductor and, separately therefrom, to the neutral conductor, wherein the evaluating electronics conclude the absence of a phase voltage on the protective ground conductor when it is established by the evaluating electronics that there is no voltage between the neutral conductor and the protective ground conductor.
Reversible-flow filter with a filter housing, with an inlet for unfiltered fluid, with a filter insert arranged in the filter housing and having a cylindrical filter wall, the inner space of the said filter insert being connected to the fluid inlet, with an outlet for filtered fluid, and with a backwash device which is arranged in the inner space of the filter insert and is rotatable about the axis of the filter insert and which has a backwash body with a washing gap, reaching near to the surface of the filter wall, for cleaning off the inside of the filter wall in backwash operation, the backwash device being coupled at one axial end to a rotary drive and being connected at its other axial end to a sludge discharge, characterized in that, the backwash body is provided with a suckaway slot which is being openable into the inner space and is separate from the washing gap and the opening cross section of which is larger than the opening cross section of the washing gap, and in that the backwash device has a hollow shaft which is partially movable in relation to the backwash body and is rotatable about the axis of rotation by means of the rotary drive and via which the washing gap or the suckaway slot is connectable to the sludge discharge as a function of the relative position between the backwash body and hollow shaft.
A method of ensuring reproducibility in an artificial intelligence infrastructure that includes one or more storage systems and one or more graphical processing unit, GPU, servers, the method comprising: identifying, by a unified management plane, one or more transformations applied to a dataset by the artificial intelligence infrastructure, wherein applying the one or more transformations to the dataset causes the artificial intelligence infrastructure to generate a transformed dataset; storing, within the one or more storage systems, information describing the dataset, the one or more transformations applied to the dataset, and the transformed dataset; identifying, by the unified management plane, one or more machine learning models executed by the artificial intelligence infrastructure using the transformed dataset as input; and storing, within the one or more storage systems, information describing one or more machine learning models executed using the transformed dataset as input, including generating, by the artificial intelligence infrastructure applying a predetermined hash function to the dataset, the one or more transformations applied to the dataset, and the transformed dataset, a hash value; and storing, within the one or more storage systems, the hash value. identifying, by a unified management plane, one or more transformations applied to a dataset by the artificial intelligence infrastructure, wherein applying the one or more transformations to the dataset causes the artificial intelligence infrastructure to generate a transformed dataset; storing, within the one or more storage systems, information describing the dataset, the one or more transformations applied to the dataset, and the transformed dataset; identifying, by the unified management plane, one or more machine learning models executed by the artificial intelligence infrastructure using the transformed dataset as input; and storing, within the one or more storage systems, information describing one or more machine learning models executed using the transformed dataset as input, including generating, by the artificial intelligence infrastructure applying a predetermined hash function to the dataset, the one or more transformations applied to the dataset, and the transformed dataset, a hash value; and storing, within the one or more storage systems, the hash value.