mhurhangee/ep-ind-claims huggingface dataset:
Data transfer system, wherein the data transfer system comprises a first control unit and a second control unit, wherein the transfer link between the two control units (2, 3) is formed at least in part by a two-wire cable that is used to transfer a useful signal between the first control unit and the second control unit as a differential signal, wherein the first control unit comprises a transceiver and the second control unit comprises a receiver, wherein a measuring circuit is arranged upstream of the receiver of the second control unit, said measuring circuit being designed in such a way as to detect a common-mode component in the useful signal, wherein an error correction circuit is provided that is designed in such a way that the detected common-mode component is taken as a basis for generating a correction signal, wherein a compensation circuit is arranged downstream of the receiver, wherein the compensation circuit is designed in such a way that the useful signal received by the receiver is corrected by means of the correction signal, wherein a common-mode filter is arranged upstream of the receiver, characterized in that the first control unit is designed in such a way that in a calibration mode at least one common-mode signal is transferred to the second control unit, wherein a differential signal generated on the basis of the common-mode signal is detected and used for adjusting the error correction circuit and/or the compensation circuit. a measuring circuit is arranged upstream of the receiver of the second control unit, said measuring circuit being designed in such a way as to detect a common-mode component in the useful signal, wherein an error correction circuit is provided that is designed in such a way that the detected common-mode component is taken as a basis for generating a correction signal, wherein a compensation circuit is arranged downstream of the receiver, wherein the compensation circuit is designed in such a way that the useful signal received by the receiver is corrected by means of the correction signal, wherein a common-mode filter is arranged upstream of the receiver, characterized in that the first control unit is designed in such a way that in a calibration mode at least one common-mode signal is transferred to the second control unit, wherein a differential signal generated on the basis of the common-mode signal is detected and used for adjusting the error correction circuit and/or the compensation circuit.
A media streaming apparatus for playing media on a web browser, comprising at least one processor to implement: a receiving unit configured to receive from a media service apparatus, a script which can be parsed by the web browser, and to receive media data through a WebSocket, the media data being generated by the media service apparatus in response to a request from the media streaming apparatus for a live streaming mode or a recorded streaming mode as indicated by a user of the media streaming apparatus; a first media restoring unit configured to decode the media data by a first decoder received in the script which can be parsed by the web browser; a second media restoring unit configured to decode the media data by a second decoder embedded in the web browser; and an output unit configured to output the media data decoded by at least one of the first media restoring unit and the second media restoring unit, wherein, when the streaming mode is the live streaming mode the received media data is packetized with a packet for each frame and is decoded by the first media restoring unit, and when the streaming mode is the recorded streaming mode the received media data is either packetized with a packet for each frame and decoded by the first media restoring unit, or packetized in a container format, each container including a plurality of frames, and decoded by the second media restoring unit; and wherein the packetizing has been performed by the media service apparatus based on at least one of a profile element of the media data and a codec applied to the media data. a receiving unit configured to receive from a media service apparatus, a script which can be parsed by the web browser, and to receive media data through a WebSocket, the media data being generated by the media service apparatus in response to a request from the media streaming apparatus for a live streaming mode or a recorded streaming mode as indicated by a user of the media streaming apparatus; a first media restoring unit configured to decode the media data by a first decoder received in the script which can be parsed by the web browser; a second media restoring unit configured to decode the media data by a second decoder embedded in the web browser; and an output unit configured to output the media data decoded by at least one of the first media restoring unit and the second media restoring unit, wherein, when the streaming mode is the live streaming mode the received media data is packetized with a packet for each frame and is decoded by the first media restoring unit, and when the streaming mode is the recorded streaming mode the received media data is either packetized with a packet for each frame and decoded by the first media restoring unit, or packetized in a container format, each container including a plurality of frames, and decoded by the second media restoring unit; and wherein the packetizing has been performed by the media service apparatus based on at least one of a profile element of the media data and a codec applied to the media data.
A system for generating perturbations with a known waveform and amplitude to calibrate a torsional, axial and radial force sensor (18,20), the system comprising: a first rotor holding a first magnet and a second magnet; a second rotor holding a third magnet and a fourth magnet, wherein the first rotor is rotatably arranged with the second rotor, the first rotor being arranged concentrically within the second rotor, wherein the first magnet and the second magnet are configured to interact with the third magnet and the fourth magnet to create a force between the first rotor and the second rotor as the first rotor rotates relative to the second rotor, wherein the first rotor is non-rotatably secured to a first rotating shaft, and the second rotor is non-rotatably secured to a second rotating shaft; a first drive motor configured to rotate the first shaft; a second drive motor configured to rotate the second shaft; and the sensor (18, 20) configured to measure the axial, torsional, and radial forces applied to the first shaft; wherein the drive motors (14,16) are arranged to rotate in similar and/or opposite directions in order to create the required frequency of perturbations. a first rotor holding a first magnet and a second magnet; a second rotor holding a third magnet and a fourth magnet, wherein the first rotor is rotatably arranged with the second rotor, the first rotor being arranged concentrically within the second rotor, wherein the first magnet and the second magnet are configured to interact with the third magnet and the fourth magnet to create a force between the first rotor and the second rotor as the first rotor rotates relative to the second rotor, wherein the first rotor is non-rotatably secured to a first rotating shaft, and the second rotor is non-rotatably secured to a second rotating shaft; a first drive motor configured to rotate the first shaft; a second drive motor configured to rotate the second shaft; and the sensor (18, 20) configured to measure the axial, torsional, and radial forces applied to the first shaft; wherein the drive motors (14,16) are arranged to rotate in similar and/or opposite directions in order to create the required frequency of perturbations.
A sample cell, comprising at least one flat sample space, which is restricted on its first large flat side by a first inner side of a first membrane and on its second large flat side by a second inner side of a second membrane, wherein a spacer is arranged between the first and the second inner sides (8a, 8b), which spacer establishes a distance between the two membranes (10a, 10b), and wherein a first retaining element is arranged on a first outer side, which faces away from the sample space, of the first membrane and a second retaining element is arranged on a second outer side, which faces away from the sample space, of the second membrane, and the first and second retaining elements (18a, 18b) together form a retaining structure, wherein the first and second retaining elements (18a, 18b) each have a plurality of apertures, which are arranged to align with each other in a direction transverse to the flat sides (6a, 6b), in that a plurality of examination windows result, in which the outer sides (16a, 16b) of the membranes (10a, 10b) are exposed.
A tunable pulse width laser system (212, 512) having an output for providing optical output pulses (226, 526), comprising: a mode locked laser source (230, 530) for providing optical seed pulses with a time duration; a non linear optical waveguiding structure (235, 293, 535) downstream of the mode locked laser source (230,530) for providing spectral bandwidth modification of the seed pulses by non-linear self-phase modulation; and a spectrally dispersive optical element (243, 543A-543D) downstream of the nonlinear optical waveguiding structure (235, 293, 535), where the spectrally dispersive optical element (243, 543A-543D) is configured to increase the time duration of received pulses responsive to both the amount of spectral bandwidth modification provided by the non linear optical waveguiding structure (235, 293, 535) and the amount of spectral dispersion provided by the spectrally dispersive optical element (243, 543A-543D) so as to provide output pulses (226, 526) of the laser system which have a time duration that is responsive to said increase in time duration and that is longer than the time duration of the associated seed pulse; and wherein the tunable pulse width laser system (212, 512) is configured such that one or both of the amount of spectral bandwidth modification provided by the non linear optical waveguiding structure (235, 293, 535) and the amount of spectral dispersion provided by the spectrally dispersive optical element (243, 543A-543D) can be selectively changed so as to selectively change the time duration of the output pulses (226, 526) downstream of the spectrally dispersive optical element (243, 543A-543D), wherein changing the amount of spectral bandwidth modification provided by the non-linear waveguiding structure (235, 293, 535) involves amplifying or attenuating the optical seed pulses. a mode locked laser source (230, 530) for providing optical seed pulses with a time duration; a non linear optical waveguiding structure (235, 293, 535) downstream of the mode locked laser source (230,530) for providing spectral bandwidth modification of the seed pulses by non-linear self-phase modulation; and a spectrally dispersive optical element (243, 543A-543D) downstream of the nonlinear optical waveguiding structure (235, 293, 535),
A filter capsule comprising: an integral filter capsule body and filter capsule top end, wherein the capsule body/top end combination has a longitudinal axis and partially defines a filter capsule chamber; an inlet port extending upwardly from the capsule top, wherein the inlet port is attachable to a connector to permit rotatable connection to a faucet end; a filter cartridge secured in the filter capsule chamber comprising an outer filter cartridge wall, an inner filter cartridge wall spaced radially inwardly from the outer cartridge wall and a filter cartridge top secured to upper ends of the filter cartridge outer and inner walls, wherein the filter cartridge walls are substantially concentrically arranged, wherein the inner filter cartridge wall defines a filter cartridge core; a filter media secured in the filter cartridge between the inner filter cartridge wall and the outer filter cartridge wall; and, a recessed outlet having a flange surface secured to a bottom end of the filter capsule body, characterized by the inlet port having an axis offset from the longitudinal axis of the filter capsule body, the filter cartridge cap being formed with a cylindrical extension that extends downwardly into the filter cartridge core, wherein a bottom end of the filter cartridge extension is formed with a concave surface, and the recessed outlet having a cylindrical outlet extension extending upwardly from the flanged surface into the filter cartridge core, whereby the combination of the rotatable connection and inlet port offset axis permits the filter capsule to be rotated around a faucet end to control direction of fluid flow out of the filter capsule. an integral filter capsule body and filter capsule top end, wherein the capsule body/top end combination has a longitudinal axis and partially defines a filter capsule chamber; an inlet port extending upwardly from the capsule top, wherein the inlet port is attachable to a connector to permit rotatable connection to a faucet end; a filter cartridge secured in the filter capsule chamber comprising an outer filter cartridge wall, an inner filter cartridge wall spaced radially inwardly from the outer cartridge wall and a filter cartridge top secured to upper ends of the filter cartridge outer and inner walls, wherein the filter cartridge walls are substantially concentrically arranged, wherein the inner filter cartridge wall defines a filter cartridge core;
A connector barrel of a battery module, comprising: - a body including a first open end, a second open end, and a hollow interior formed by the body that extends between the first open end and the second open end; and - a flange disposed on the body and extending outwardly from the body, characterized in that the flange comprises a plurality of energy concentrator ridges disposed on a surface (104, 112) of the flange, and wherein the plurality of energy concentrator ridges are configured to facilitate ultrasonic welding of the flange to a wall of the battery module. - a body including a first open end, a second open end, and a hollow interior formed by the body that extends between the first open end and the second open end; and - a flange disposed on the body and extending outwardly from the body, characterized in that the flange comprises a plurality of energy concentrator ridges disposed on a surface (104, 112) of the flange, and wherein the plurality of energy concentrator ridges are configured to facilitate ultrasonic welding of the flange to a wall of the battery module.
Device for producing spherical food products comprising a pressure chamber that can be connected to a supply line and a shearing system (3, 6) that can be connected to said pressure chamber, wherein said shearing system is comprised of two adjacent shearing blades (3a, 3b), each comprising one or more round openings (6a, 6b), wherein said adjacent shearing blades (3a, 3b) are moveable with respect to each other, characterized in that each shearing blade (3a, 3b) is connected to an eccentric (4a, 4b), and each eccentric (4a, 4b) can be driven by a motor.
A pressure measuring material comprising: a substrate; and a pressure-sensitive layer provided on the substrate, wherein the pressure-sensitive layer contains a polymer matrix containing a polymer compound having a number-average molecular weight of 1,000 or more measured by gel permeation chromatography, microcapsules encapsulating an electron-donating dye precursor and a solvent, and an electron-accepting compound, and wherein the pressure measuring material is in the form of a monosheet-type sheet; characterized in that (i) the microcapsules and the electron-accepting compound are contained in the polymer matrix, and (ii) an arithmetic mean roughness Ra of an outermost surface opposite to the substrate is less than 2.0 μm according to JIS B 0681-6: 2014 measured using a white light scanning interferometer using optical interferometry. a substrate; and a pressure-sensitive layer provided on the substrate, wherein the pressure-sensitive layer contains a polymer matrix containing a polymer compound having a number-average molecular weight of 1,000 or more measured by gel permeation chromatography, microcapsules encapsulating an electron-donating dye precursor and a solvent, and an electron-accepting compound, and wherein the pressure measuring material is in the form of a monosheet-type sheet; characterized in that (i) the microcapsules and the electron-accepting compound are contained in the polymer matrix, and (ii) an arithmetic mean roughness Ra of an outermost surface opposite to the substrate is less than 2.0 μm according to JIS B 0681-6: 2014 measured using a white light scanning interferometer using optical interferometry.
A method for operating a session control entity configured to control a data packet session for a mobile subscriber in a cellular network, wherein at least one service is applied to the data packet session by a service application entity located outside the cellular network in a service network, the method comprising at the session control entity: - receiving a first request from a requestor requesting application of the at least one service, in which it is requested that the requestor be informed of a current status of at least one session related parameter of the data packet session, wherein the requestor is the service application entity - transmitting a notification to the requestor, the notification comprising the current status of the at least one session related parameter - transmitting a session establishment request for establishing the data packet session to a user plane entity configured to forward user plane data of the data packet session, the session establishment request comprising a session control entity identifier allowing the session control entity to be identified. - receiving a first request from a requestor requesting application of the at least one service, in which it is requested that the requestor be informed of a current status of at least one session related parameter of the data packet session, wherein the requestor is the service application entity - transmitting a notification to the requestor, the notification comprising the current status of the at least one session related parameter - transmitting a session establishment request for establishing the data packet session to a user plane entity configured to forward user plane data of the data packet session, the session establishment request comprising a session control entity identifier allowing the session control entity to be identified.
A tablet terminal comprising: a touch panel that allows for displaying and inputting; a receiving unit that receives a triggering indication to enable a detection result of eye gaze; a setting unit that sets a target area which corresponds to a part of an image displayed on a screen of the touch panel using a detection position of eye gaze; a display controller that displays a partial image displayed in the target area out of the image displayed on the screen in an aiming area in which a touch operation to the target area is received in place of the target area, whereby said aiming area is different from the target area and arranged on a corner of the image on the screen; a recording unit that records a correspondence relation between coordinates of the aiming area and coordinates of the target area in a storage unit; a converter that converts coordinates of the aiming area in which a touch operation is received into coordinates projected to the target area using the correspondence relation stored in the storage unit when the touch operation is received in the aiming area; and an output unit that outputs the coordinates converted by the converter to a program executed by the tablet terminal. a touch panel that allows for displaying and inputting; a receiving unit that receives a triggering indication to enable a detection result of eye gaze; a setting unit that sets a target area which corresponds to a part of an image displayed on a screen of the touch panel using a detection position of eye gaze; a display controller that displays a partial image displayed in the target area out of the image displayed on the screen in an aiming area in which a touch operation to the target area is received in place of the target area, whereby said aiming area is different from the target area and arranged on a corner of the image on the screen; a recording unit that records a correspondence relation between coordinates of the aiming area and coordinates of the target area in a storage unit; a converter that converts coordinates of the aiming area in which a touch operation is received into coordinates projected to the target area using the correspondence relation stored in the storage unit when the touch operation is received in the aiming area; and an output unit that outputs the coordinates converted by the converter to a program executed by the tablet terminal.
Wall with integrated formwork comprising at least two walls made of, or comprising, a material, or assembly of materials, of masonry, said wall with integrated formwork comprising a set of reinforcements comprising a connecting reinforcement, of said walls between each other and one or a plurality of internal reinforcements for reinforcing the wall, which is not or are not directly connected to said connecting reinforcement, said connecting reinforcement comprising warp wires in relief, comprising a succession of lower portions and upper portions, separated by lateral segments (8, 9) forming upper elbows and lower elbows, a multitude of weft wires (3, 4, 5), substantially rectilinear and extending substantially perpendicularly with respect to said warp wires, a first series of weft wires provided in, or in proximity to, said upper elbows and linking said warp wires to each other at the upper ends thereof, and at least a second series of two weft wires provided in, or in proximity to, said lower elbows and linking said warp wires to each other at said lower portions thereof, said internal reinforcement(s) for reinforcing the wall being or comprising a flat wire mesh (14, 15) comprising warp wires (23, 30) and weft wires (24, 31) extending substantially perpendicularly with respect to said warp wires and linking the weft wires to each other.