mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display panel which is curved; a main circuit board facing a rear surface of the display panel, the main circuit board comprises a first main segment (MS1a), a second main segment (MS2a), and a first sub-segment (SSa) disposed between the first main segment (MS1a) and the second main segment (MS2a); and a plurality of flexible printed circuit boards which electrically connects the display panel and the main circuit board, characterized by the following features: a first cut-away portion is defined between the first main segment (MS1a) and the second main segment (MS2a), the first main segment (MS1a) is bent along a first bending line (BL1a) defining a boundary between the first main segment (MS1a) and the first sub-segment (SSa), and the second main segment (Ms2a) is bent along a second bending line (BL2a) defining a boundary between the second main segment (MS2a) and the first sub-segment (SSa). a display panel which is curved; a main circuit board facing a rear surface of the display panel, the main circuit board comprises a first main segment (MS1a), a second main segment (MS2a), and a first sub-segment (SSa) disposed between the first main segment (MS1a) and the second main segment (MS2a); and a plurality of flexible printed circuit boards which electrically connects the display panel and the main circuit board, characterized by the following features: a first cut-away portion is defined between the first main segment (MS1a) and the second main segment (MS2a), the first main segment (MS1a) is bent along a first bending line (BL1a) defining a boundary between the first main segment (MS1a) and the first sub-segment (SSa), and the second main segment (Ms2a) is bent along a second bending line (BL2a) defining a boundary between the second main segment (MS2a) and the first sub-segment (SSa). a first cut-away portion is defined between the first main segment (MS1a) and the second main segment (MS2a), the first main segment (MS1a) is bent along a first bending line (BL1a) defining a boundary between the first main segment (MS1a) and the first sub-segment (SSa), and the second main segment (Ms2a) is bent along a second bending line (BL2a) defining a boundary between the second main segment (MS2a) and the first sub-segment (SSa).
A method of clock managing in a packet data network, PDN, implementing a time-transfer protocol, the network comprising a plurality of timing-clients (12-2 - 12-5) operatively connected to a timing-server (12-1, 12-11), the method comprising: enabling access to data informative of the least significant part of the original timestamp, OLSP data, merely to authorized timing-clients among the plurality of timing-clients (12-2 - 12-5); and enabling the authorized timing-clients to obtain the OLSP data and synchronize the respective clocks using the obtained OLSP data together with data informative of the most significant part of the original timestamp, OMSP data, wherein the OMSP data is available for all timing-clients; characterized by modifying, by the timing-server (12-1, 12-11), a timestamp record in a timestamp field of a time-transfer protocol's message to enable a controllable access to the OLSP data, wherein modifying the timestamp record comprises modifying the least significant part of the timestamp record, RLSP, to comprise the OLSP data in an encrypted form or to comprise values substituting, in a predefined manner, the OLSP data; transferring the modified timestamp record to all timing-clients among the plurality of timing clients, wherein the OLSP data is transferred in a controllable access manner. enabling access to data informative of the least significant part of the original timestamp, OLSP data, merely to authorized timing-clients among the plurality of timing-clients (12-2 - 12-5); and enabling the authorized timing-clients to obtain the OLSP data and synchronize the respective clocks using the obtained OLSP data together with data informative of the most significant part of the original timestamp, OMSP data, wherein the OMSP data is available for all timing-clients; characterized by modifying, by the timing-server (12-1, 12-11), a timestamp record in a timestamp field of a time-transfer protocol's message to enable a controllable access to the OLSP data, wherein modifying the timestamp record comprises modifying the least significant part of the timestamp record, RLSP, to comprise the OLSP data in an encrypted form or to comprise values substituting, in a predefined manner, the OLSP data; transferring the modified timestamp record to all timing-clients among the plurality of timing clients, wherein the OLSP data is transferred in a controllable access manner.
A method for improving a signal-to-noise ratio of image frames, the method comprising: estimating a representative velocity of an optical flow in an image frame sequence containing the image frames, wherein the image frames are microscopy image frames determining an interpolation factor from the representative velocity of the optical flow; employing a trained artificial neural network for generating an expanded image frame sequence, wherein the expanded image frame sequence includes a number of interpolating image frames, wherein each interpolating image frame interpolates between subsequent image frames of the image frame sequence, wherein the number of interpolating image frames corresponds to the interpolation factor; and computing a time-dependent combination of image frames from the expanded image frame sequence to generate an output image frame sequence. estimating a representative velocity of an optical flow in an image frame sequence containing the image frames, wherein the image frames are microscopy image frames determining an interpolation factor from the representative velocity of the optical flow; employing a trained artificial neural network for generating an expanded image frame sequence, wherein the expanded image frame sequence includes a number of interpolating image frames, wherein each interpolating image frame interpolates between subsequent image frames of the image frame sequence, wherein the number of interpolating image frames corresponds to the interpolation factor; and computing a time-dependent combination of image frames from the expanded image frame sequence to generate an output image frame sequence.
A method for preparing cut and frozen vegetables, comprising the steps of: - washing the vegetables in order to eliminate any residues of earth or of other substances and materials which may have accumulated during the harvest; - subjecting said vegetables to mechanical treatment in order to isolate the edible part thereof; - cutting said vegetables into strips of thickness comprised between 2 mm and 5 mm and width comprised between 2 mm and 20 mm wherein the strips have a long pasta format such as spaghetti, tagliatelle and pappardelle, through the use of a cutting device; - steam-cooking said strips; - air-drying said strips; - dividing said strips into portions corresponding to a preset quantity; - packaging said portions of strips in containers through the use of a packaging machine; - freezing said containers containing said portions by way of a freezer to a temperature comprised between -18 °C and -30 °C. - washing the vegetables in order to eliminate any residues of earth or of other substances and materials which may have accumulated during the harvest; - subjecting said vegetables to mechanical treatment in order to isolate the edible part thereof; - cutting said vegetables into strips of thickness comprised between 2 mm and 5 mm and width comprised between 2 mm and 20 mm wherein the strips have a long pasta format such as spaghetti, tagliatelle and pappardelle, through the use of a cutting device; - steam-cooking said strips; - air-drying said strips; - dividing said strips into portions corresponding to a preset quantity; - packaging said portions of strips in containers through the use of a packaging machine; - freezing said containers containing said portions by way of a freezer to a temperature comprised between -18 °C and -30 °C.
A process for forming a nano-crystalline metal sheet comprising: supplying a liquid metallic glass forming alloy having a melting temperature from 950 to 1350 °C, said alloy consisting of at least 50 % iron and at least one element selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Al, Y, Sc, La, Ce, Sm, Gd, Ho, Er, Tm, Yb and Lu and at least one element selected from the group consisting of B, C, N, O, P and S and optionally at or below 1 % wt of other elements, wherein said alloy will form into nano-crystalline metallic material; providing two casting rolls, said rolls provided having a gap therebetween; introducing said liquid metallic glass forming alloy to said casting rolls proximate said gap; forming a sheet by rotating said casting rolls; and cooling said liquid metallic glass forming alloy at a cooling rate from a liquid to a solid on the order of 10 4 K/s to produce a nano-crystalline microstructure having a crystalline grain size of less than 1 μm and wherein said nanocrystalline microstructure is continuous across the thickness of said sheet which is in the range of 0.4 to 10 mm. supplying a liquid metallic glass forming alloy having a melting temperature from 950 to 1350 °C, said alloy consisting of at least 50 % iron and at least one element selected from the group consisting of Ti, Zr, Hf, V, Nb, Ta, Cr, Mo, W, Al, Y, Sc, La, Ce, Sm, Gd, Ho, Er, Tm, Yb and Lu and at least one element selected from the group consisting of B, C, N, O, P and S and optionally at or below 1 % wt of other elements, wherein said alloy will form into nano-crystalline metallic material; providing two casting rolls, said rolls provided having a gap therebetween; introducing said liquid metallic glass forming alloy to said casting rolls proximate said gap; forming a sheet by rotating said casting rolls; and cooling said liquid metallic glass forming alloy at a cooling rate from a liquid to a solid on the order of 10 4 K/s to produce a nano-crystalline microstructure having a crystalline grain size of less than 1 μm and wherein said nanocrystalline microstructure is continuous across the thickness of said sheet which is in the range of 0.4 to 10 mm.
An Internet steering gateway comprising: a deep packet inspection, DPI, utility to ascertain an indication of a destination remote application server from the first packet of a data session; an RAS database to store an optimization profile for each of a multiplicity of RASs; and a steering utility to steer said data session, starting with the first packet of said data session, to one of at least one external optimization platform and a RAS as per said optimization profile associated with said indication, based on predicting whether or not said data session is suitable for processing by a particular EOP, wherein said predicting takes into account profiles of historical session data. a deep packet inspection, DPI, utility to ascertain an indication of a destination remote application server from the first packet of a data session; an RAS database to store an optimization profile for each of a multiplicity of RASs; and a steering utility to steer said data session, starting with the first packet of said data session, to one of at least one external optimization platform and a RAS as per said optimization profile associated with said indication, based on predicting whether or not said data session is suitable for processing by a particular EOP, wherein said predicting takes into account profiles of historical session data.
Method for readout-segmented echo-planar magnetic resonance imaging of an examination object, wherein k-space is divided into a plurality of segments along a readout direction k x, wherein k-space data in each of the plurality of segments is acquired separately per excitation using a parallel imaging technique, comprising: - acquiring k-space data in a first segment having a first segment width in readout direction, wherein the k-space data in the first segment is undersampled with a first acceleration factor; - acquiring k-space data in a second segment having a second segment width in readout direction, wherein the k-space data in the second segment is undersampled with a second acceleration factor, wherein the first acceleration factor and the second acceleration factor are different from each other; and - generating an MR image of the examination object based at least on the k-space data acquired in the first and the second segment (3, 4); characterized in that the first segment width and the second segment width are different from each other. - acquiring k-space data in a first segment having a first segment width in readout direction, wherein the k-space data in the first segment is undersampled with a first acceleration factor; - acquiring k-space data in a second segment having a second segment width in readout direction, the k-space data in the second segment is undersampled with a second acceleration factor, wherein the first acceleration factor and the second acceleration factor are different from each other; and - generating an MR image of the examination object based at least on the k-space data acquired in the first and the second segment (3, 4); - generating an MR image of the examination object based at least on the k-space data acquired in the first and the second segment (3, 4); characterized in that the first segment width and the second segment width are different from each other.
A motor for a compressor, comprising: a stator provided with a yoke portion formed in an annular shape to configure a passage through which magnetism flows, a plurality of tooth portions protruded from an inner circumferential surface of the yoke portion toward a center thereof by a certain length in a circumferential direction, and a plurality of slot portions recessed between the tooth portions as deep as configuring a certain sectional area in a circumferential direction; coils wound on the slot portions and the tooth portions of the stator; a rotor inserted in the stator with a certain gap and having conductors therein which is rotated by an electromagnetic induction of the coils; and a rotational shaft press-fitted in the center of the rotor for transferring a rotational force to a compression unit; characterised by a terminal having lead wires coupled to the coils in a welding manner for connecting the coils to external power sources, wherein the coils and the lead wires are formed of aluminum, wherein the coils and one end of the lead wires are coupled to each other in a welding manner, and wherein another end of the lead wires and a conductor of the terminal are coupled to each other in a welding manner. a stator provided with a yoke portion formed in an annular shape to configure a passage through which magnetism flows, a plurality of tooth portions protruded from an inner circumferential surface of the yoke portion toward a center thereof by a certain length in a circumferential direction, and a plurality of slot portions recessed between the tooth portions as deep as configuring a certain sectional area in a circumferential direction; coils wound on the slot portions and the tooth portions of the stator; a rotor inserted in the stator with a certain gap and having conductors therein which is rotated by an electromagnetic induction of the coils; and a rotational shaft press-fitted in the center of the rotor for transferring a rotational force to a compression unit; characterised by a terminal having lead wires coupled to the coils in a welding manner for connecting the coils to external power sources, wherein the coils and the lead wires are formed of aluminum, wherein the coils and one end of the lead wires are coupled to each other in a welding manner, and wherein another end of the lead wires and a conductor of the terminal are coupled to each other in a welding manner.
Refractory molding with a hot side and a cold side opposite from the hot side, characterized in that the refractory molding comprises a first material with ceramic hollow sphere structures, an amount of hollow sphere structures decreasing from the hot side to the cold side.
A control method for an autonomous vehicle, comprising: obtaining a current steering wheel angle, a current vehicle speed and a current yaw rate of the autonomous vehicle; correcting the current steering wheel angle based on a first correction deviation coefficient and a second correction deviation coefficient obtained in a previous cycle to generate a corrected steering wheel angle; inputting the corrected steering wheel angle and the current vehicle speed into a preset vehicle dynamic model to obtain an estimated yaw rate; obtaining a first yaw rate deviation value between the current yaw rate and the estimated yaw rate; processing the first yaw rate deviation value by a preset closed-loop algorithm to obtain a first correction deviation coefficient and a second correction deviation coefficient of a current cycle; and performing correction processing on a target steering wheel angle based on the first correction deviation coefficient and the second correction deviation coefficient of the current cycle to obtain a corrected target steering wheel angle, and controlling the autonomous vehicle to drive based on the corrected target steering wheel angle. obtaining a current steering wheel angle, a current vehicle speed and a current yaw rate of the autonomous vehicle; correcting the current steering wheel angle based on a first correction deviation coefficient and a second correction deviation coefficient obtained in a previous cycle to generate a corrected steering wheel angle; inputting the corrected steering wheel angle and the current vehicle speed into a preset vehicle dynamic model to obtain an estimated yaw rate; obtaining a first yaw rate deviation value between the current yaw rate and the estimated yaw rate; processing the first yaw rate deviation value by a preset closed-loop algorithm to obtain a first correction deviation coefficient and a second correction deviation coefficient of a current cycle; and performing correction processing on a target steering wheel angle based on the first correction deviation coefficient and the second correction deviation coefficient of the current cycle to obtain a corrected target steering wheel angle, and controlling the autonomous vehicle to drive based on the corrected target steering wheel angle.
A respirator, comprising: a ventilation device, configured for providing ventilation airflow to a patient; a first monitor, configured for monitoring a pressure and/or a flow velocity with which the ventilation device ventilates the patient; a second monitor, configured for measuring a pressure change that reflects a self-respiratory effort of the patient; and a processor, configured for identifying an inspiratory trigger moment or an expiratory trigger moment of the patient according to the pressure change that reflects the self-respiratory effort of the patient, and characterized in that the second monitor is further configured for obtaining a pressure waveform that reflects the self-respiratory effort of the patient, and the processor is further configured for extracting an envelope from the pressure waveform, and identifying the inspiratory trigger moment or the expiratory trigger moment of the patient according to the envelope. a ventilation device, configured for providing ventilation airflow to a patient; a first monitor, configured for monitoring a pressure and/or a flow velocity with which the ventilation device ventilates the patient; a second monitor, configured for measuring a pressure change that reflects a self-respiratory effort of the patient; and a processor, configured for identifying an inspiratory trigger moment or an expiratory trigger moment of the patient according to the pressure change that reflects the self-respiratory effort of the patient, and characterized in that the second monitor is further configured for obtaining a pressure waveform that reflects the self-respiratory effort of the patient, and the processor is further configured for extracting an envelope from the pressure waveform, and identifying the inspiratory trigger moment or the expiratory trigger moment of the patient according to the envelope.
A rail chamber filling element for rails having a rail head, a rail foot, and a connecting web, defining a respective rail chamber on both sides of the rail, which extends longitudinally along the rail; wherein the rail chamber filling element defines a longitudinal direction in which the rail chamber filling element extends longitudinally along the rail in the installed state thereof, so that in the installed state a plurality of the rail chamber filling elements form a line extending longitudinally along the rail; wherein the rail chamber filling element comprises at least one base body and at least one compression portion along the longitudinal direction, wherein the at least one base body is made of a harder rubber elastic material and the compression portion is made of a softer and compressible material.
Household refrigeration appliance with a housing, in which an inner container which delimits an inner chamber (3, 4) for holding food is arranged, and with a machine chamber, which is separate from the inner chamber (3, 4) and in which at least components (6 to 11) of a refrigeration circuit of the household refrigeration appliance are arranged, wherein a carrier tray is arranged in the machine chamber, on which carrier tray at least one further part (6, 43, 44, 45, 46, 47, 48) is held in a connecting manner by at least one snap connection and/or at least one plug-in connection (50, 53) and/or at least one locking connection without additional fastening elements, wherein the carrier tray has a base in which at least one locking mount (20, 21) is configured for a locking connection, wherein a first part (6, 43, 44, 45, 46, 47, 48) is fastened to a base of the carrier tray with a first connection type, in particular a locking connection, wherein the first part (6, 43, 44, 45, 46, 47, 48), when connected to the carrier tray, has a dimension in a direction perpendicular to a longitudinal axis of the carrier tray that is smaller than a distance between two longitudinal side walls (14, 15) of the carrier tray, characterised in that the carrier tray has channels (18, 19) that are C-shaped in cross section on upper edge faces of side walls, in particular longitudinal side walls (14, 15), with gaps (26 to 42) for plug-in connections (50, 53) configured in said channels (18, 19) and the first part (6, 43, 44, 45, 46, 47, 48) is connected to a longitudinal side wall (14, 15) of the carrier tray with a second connection type, in particular a plug-in connection (50, 53).