mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: determining an upcoming time point in a media stream at which a media client is to perform a content revision involving insertion of new content; scheduling an advanced time point at which the media client should initiate a process of acquiring the new content to facilitate performing the content revision at the upcoming time point, wherein scheduling the advanced time point comprises determining a content-acquisition duration and setting the advanced time point to be at least the determined content-acquisition duration before the upcoming time point; at the advanced time point, initiating by the media client the process of acquiring the new content; and at the upcoming time point, performing by the media client the content revision with the acquired new content, wherein determining the content-acquisition duration comprises predicting the content-acquisition duration based on past instances of content-acquisition duration, wherein predicting the content-acquisition duration based on past instances of content-acquisition duration comprises: determining a state of at least one operational factor related to acquiring the new content; and predicting the content-acquisition duration based on past instances of content-acquisition duration in correlation with the determined state, wherein the at least one operational factor comprises at least one factor selected from the group consisting of content source, processor load, or memory load. determining an upcoming time point in a media stream at which a media client is to perform a content revision involving insertion of new content; scheduling an advanced time point at which the media client should initiate a process of acquiring the new content to facilitate performing the content revision at the upcoming time point, wherein scheduling the advanced time point comprises determining a content-acquisition duration and setting the advanced time point to be at least the determined content-acquisition duration before the upcoming time point; at the advanced time point, initiating by the media client the process of acquiring the new content; and at the upcoming time point, performing by the media client the content revision with the acquired new content, wherein determining the content-acquisition duration comprises predicting the content-acquisition duration based on past instances of content-acquisition duration, wherein predicting the content-acquisition duration based on past instances of content-acquisition duration comprises: determining a state of at least one operational factor related to acquiring the new content; and predicting the content-acquisition duration based on past instances of content-acquisition duration in correlation with the determined state, determining a state of at least one operational factor related to acquiring the new content; and predicting the content-acquisition duration based on past instances of content-acquisition duration in correlation with the determined state, wherein the at least one operational factor comprises at least one factor selected from the group consisting of content source, processor load, or memory load.
A method for wireless communication, wherein the method is performed by a user equipment, UE, and comprises: identifying a spreading code of a plurality of spreading codes configured for a plurality of UEs including the UE and for spreading a first set of modulation symbols of uplink control information, wherein the plurality of spreading codes are orthogonal cover codes that are orthogonal from each other; identifying a second set of modulation symbols of the uplink control information for a symbol period of an uplink slot, wherein the second set of modulation symbols is a repetition of the first set of modulation symbols; obtaining a set of spread modulation symbols by spreading the first and second sets of modulation symbols, including multiplying the first set of modulation symbols with a first scalar of the spreading code and multiplying the second set of modulation symbols with a second scalar of the spreading code; performing a discrete Fourier transform, DFT, spreading process on the set of spread modulation symbols, the DFT spreading process generating a set of frequency domain symbols, wherein the respective spreading codes are selected such that uplink transmissions from different ones of the plurality of UEs are orthogonal in the frequency domain after the DFT spreading process; and transmitting a time-domain waveform obtained from the set of frequency domain symbols to a serving base station in the symbol period of the uplink slot. identifying a spreading code of a plurality of spreading codes configured for a plurality of UEs including the UE and for spreading a first set of modulation symbols of uplink control information, wherein the plurality of spreading codes are orthogonal cover codes that are orthogonal from each other; identifying a second set of modulation symbols of the uplink control information for a symbol period of an uplink slot, wherein the second set of modulation symbols is a repetition of the first set of modulation symbols; obtaining a set of spread modulation symbols by spreading the first and second sets of modulation symbols, including multiplying the first set of modulation symbols with a first scalar of the spreading code and multiplying the second set of modulation symbols with a second scalar of the spreading code; performing a discrete Fourier transform, DFT, spreading process on the set of spread modulation symbols, the DFT spreading process generating a set of frequency domain symbols, wherein the respective spreading codes are selected such that uplink transmissions from different ones of the plurality of UEs are orthogonal in the frequency domain after the DFT spreading process; and transmitting a time-domain waveform obtained from the set of frequency domain symbols to a serving base station in the symbol period of the uplink slot.
Method for manufacturing a plastic container, wherein the plastic container comprises a container wall and at least one inserted element is attached to the container wall, wherein the inserted element has an attachment surface with holding geometries projecting from the attachment surface, comprising the steps of heating the container wall at least in an attachment region, pressing the attachment surface of the inserted element against the heated attachment region of the container wall, wherein the holding geometries intrude into the container wall without fully penetrating the container wall, with the result that the free ends of the holding geometries come to lie in the interior of the container wall, wherein the plastic of the container wall comes to lie between the holding geometries in a way such that there is a form fit between the holding geometries of the inserted element and the plastic of the container wall, wherein the holding geometries are designed such that heads of the holding geometries are in each case connected to the attachment surface via feet of the holding geometries having a smaller cross section than the heads of the holding geometries, to be specific are designed in the shape of mushrooms, wherein the holding geometries extend linearly, in a direction normal to the mushroom-shaped cross section, wherein a plurality of linear holding geometries are arranged in parallel side-by-side. heating the container wall at least in an attachment region, pressing the attachment surface of the inserted element against the heated attachment region of the container wall, wherein the holding geometries intrude into the container wall without fully penetrating the container wall, with the result that the free ends of the holding geometries come to lie in the interior of the container wall, wherein the plastic of the container wall comes to lie between the holding geometries in a way such that there is a form fit between the holding geometries of the inserted element and the plastic of the container wall, wherein the holding geometries are designed such that heads of the holding geometries are in each case connected to the attachment surface via feet of the holding geometries having a smaller cross section than the heads of the holding geometries, to be specific are designed in the shape of mushrooms, wherein the holding geometries extend linearly, in a direction normal to the mushroom-shaped cross section, wherein a plurality of linear holding geometries are arranged in parallel side-by-side.
A method comprising: receiving, by a first computing device and from a second computing device, first network latency information, the first network latency information indicating amounts of latencies associated with communication paths between the first computing device and a plurality of network devices; receiving, by the first computing device from a first network device of the plurality of network devices, a data packet, the data packet configured to include a time-to-buffer, TTB, value, and the TTB value indicating an amount of time remaining to deliver the data packet to an end point; modifying, by the first computing device, the TTB value by decrementing the TTB value based on an amount of latency associated with a communication path between the first computing device and the first network device; determining, based on the modified TTB value, whether the data packet will timely reach a destination; and sending, based on a determination that the data packet will not timely reach the destination, and by the first computing device and to the first network device, a first network communication comprising second network latency information. receiving, by a first computing device and from a second computing device, first network latency information, the first network latency information indicating amounts of latencies associated with communication paths between the first computing device and a plurality of network devices; receiving, by the first computing device from a first network device of the plurality of network devices, a data packet, the data packet configured to include a time-to-buffer, TTB, value, and the TTB value indicating an amount of time remaining to deliver the data packet to an end point; modifying, by the first computing device, the TTB value by decrementing the TTB value based on an amount of latency associated with a communication path between the first computing device and the first network device; determining, based on the modified TTB value, whether the data packet will timely reach a destination; and sending, based on a determination that the data packet will not timely reach the destination, and by the first computing device and to the first network device, a first network communication comprising second network latency information.
An optical imaging lens (100, 200, 300), in order from an object side to an image side along an optical axis, formed by eight lenses, comprising: a first lens having positive refractive power; a second lens having positive refractive power; a third lens having negative refractive power, wherein the second lens and the third lens are adhered to form a compound lens with positive refractive power; an aperture; a fourth lens having negative refractive power; a fifth lens having positive refractive power, wherein the fourth lens and the fifth lens are adhered to form a compound lens; and a sixth lens having positive refractive power; a seventh lens having positive refractive power; and an eighth lens having negative refractive power; wherein the optical imaging lens (100, 200, 300) satisfies: 1.47>F/f1>0.14; 1.55>F/f6>0.46; -0.42>F/f8>-1.86; 1.26>F/f23≥0.76 1.07>F/f7≥0.53; F is a focal length of the optical imaging lens (100, 200, 300); f1 is a focal length of the first lens; f6 is a focal length of the sixth lens; f8 is a focal length of the eighth lens; f23 is a focal length of the compound lens formed by the second lens and the third lens; f7 is a focal length of the seventh lens. a first lens having positive refractive power; a second lens having positive refractive power; a third lens having negative refractive power, wherein the second lens and the third lens are adhered to form a compound lens with positive refractive power; an aperture; a fourth lens having negative refractive power; a fifth lens having positive refractive power, wherein the fourth lens and the fifth lens are adhered to form a compound lens; and a sixth lens having positive refractive power; a seventh lens having positive refractive power; and an eighth lens having negative refractive power; wherein the optical imaging lens (100, 200, 300) satisfies: 1.47>F/f1>0.14; 1.55>F/f6>0.46; -0.42>F/f8>-1.86; 1.26>F/f23≥0.76 1.07>F/f7≥0.53; F is a focal length of the optical imaging lens (100, 200, 300); f1 is a focal length of the first lens; f6 is a focal length of the sixth lens; f8 is a focal length of the eighth lens; f23 is a focal length of the compound lens formed by the second lens and the third lens; f7 is a focal length of the seventh lens.
A transmission element with elastic response for the transmission of a torsional stress between an actuating element and an actuated element, the transmission element comprising: a solid block body; attachments for said actuating element and said actuated element formed in, or associated with, said body in opposed positions aligned along a center axis of the torsion stress; and a distribution of through recesses (2, 3) formed in said body, said recesses (2, 3) developing parallel and superimposed mainly according to planes with a parallel relationship with respect to said center axis, and spacing a plurality of plate-like segments (11, 111) of the solid block body, all said segments being parallel with each other and with said center axis, wherein said recesses are closed alternatively on either sides (1a, 1b) of the body that are mutually opposed along the center axis and correspond to respective attachments to the actuating element and the actuated element, so as to define a serpentine portion comprising said plate-like segments spaced by the thickness of the recesses (2, 3) and connected by junctions that define the closure of the recesses on the opposed sides (1a, 1b), the serpentine portion having ends connected respectively with said attachments via connection bridges at mutually opposite sides of said torsion axis.
A system, comprising a rectifier which can be supplied from an electrical alternating-voltage supply network, a first inverter which feeds a first electric motor, and a second inverter which feeds a second electric motor, wherein the direct-voltage-side connection of the first inverter (3, 4) is connected to the direct-voltage-side connection of the rectifier, wherein the direct-voltage-side connection of the second inverter (3, 4) is connected to the direct-voltage-side connection of the rectifier, in particular wherein the two direct-voltage-side connections of the inverters (3, 4) are connected in parallel, characterised in that a controller unit, in particular in the first inverter, is provided, which unit is designed to control the power received from the alternating-voltage supply network by way of the rectifier to a desired value by setting the torque of the electric motor fed by the first inverter (3, 4) as a controlled variable (M_Soll), the controller unit having a precontrol path so that the power emitted or received by the second electric motor by way of the second inverter (3, 4) is effective as a precontrol signal, wherein the controller unit furthermore is designed to determine the power of the second inverter (3, 4) by multiplying a current I_ZK_App of the second inverter (3, 4) by a measured DC-link voltage U_ZK_ist. wherein the direct-voltage-side connection of the first inverter (3, 4) is connected to the direct-voltage-side connection of the rectifier, wherein the direct-voltage-side connection of the second inverter (3, 4) is connected to the direct-voltage-side connection of the rectifier, in particular wherein the two direct-voltage-side connections of the inverters (3, 4) are connected in parallel, characterised in that a controller unit, in particular in the first inverter, is provided, which unit is designed to control the power received from the alternating-voltage supply network by way of the rectifier to a desired value by setting the torque of the electric motor fed by the first inverter (3, 4) as a controlled variable (M_Soll), the controller unit having a precontrol path so that the power emitted or received by the second electric motor by way of the second inverter (3, 4) is effective as a precontrol signal, wherein the controller unit furthermore is designed to determine the power of the second inverter (3, 4) by multiplying a current I_ZK_App of the second inverter (3, 4) by a measured DC-link voltage U_ZK_ist.
A method implemented by a first radio unit in a network of distributed radio units (112-116, 224-240) that operate together as part of an extended wireless access point, the method comprising: measuring at least one of an offset or a difference between a wirelessly broadcasted reference signal received from a second radio unit of the extended wireless access point and a free running clock of the first radio unit; receiving a stream of compressed samples of a signal, into which compressed samples a timestamp has been inserted to indicate when to transmit the signal; decompressing the compressed samples to reconstruct the signal; determining a time at which to transmit the reconstructed signal based in part on the timestamp and at least one of the offset or the difference; and wirelessly transmitting the reconstructed signal at the determined time. measuring at least one of an offset or a difference between a wirelessly broadcasted reference signal received from a second radio unit of the extended wireless access point and a free running clock of the first radio unit; receiving a stream of compressed samples of a signal, into which compressed samples a timestamp has been inserted to indicate when to transmit the signal; decompressing the compressed samples to reconstruct the signal; determining a time at which to transmit the reconstructed signal based in part on the timestamp and at least one of the offset or the difference; and wirelessly transmitting the reconstructed signal at the determined time.
A method for displaying range and time on a display in an aircraft display system and visually rendering on the display a textual representation of the distance between a first location to a second location and a predicted travel-time from the first location to the second location, the method comprising: generating range symbology in the form of a range ring visually representative of the distance, having a center that corresponds to the first location; displaying the range symbology on the display; generating symbology visually and textually representative of the predicted travel-time; displaying the travel-time symbology on the display; changing the displayed travel time via an input device; generating updated range symbology corresponding to the change in travel-time; displaying the updated range symbology; changing the displayed range via the input device; generating updated time symbology corresponding to the change in range; and displaying the updated time symbology. generating range symbology in the form of a range ring visually representative of the distance, having a center that corresponds to the first location; displaying the range symbology on the display; generating symbology visually and textually representative of the predicted travel-time; displaying the travel-time symbology on the display; changing the displayed travel time via an input device; generating updated range symbology corresponding to the change in travel-time; displaying the updated range symbology; changing the displayed range via the input device; generating updated time symbology corresponding to the change in range; and displaying the updated time symbology.
Use of a porous synthetic material comprising a nonwoven polypropylene fabric as electrolytic cell support member positioned within an intermediate chamber of a three-chamber electrolytic cell to apply pressure to an ion exchange membrane (24, 26) causing the ion exchange membrane (24, 26) to be in contact with an electrode (12, 14).
A gear unit, having a housing having at least a first and a second housing part (1, 30), wherein in each case at least one bearing receptacle (3, 5, 7, 33, 35, 37) is formed in the respective housing part (1, 30), in which receptacle in each case a respective bearing of a respective shaft of the gear unit is received, wherein ribs (2, 4, 6, 8, 32, 34, 36, 38) are formed in a radiating manner on at least the bearing receptacle (3, 5, 7, 33, 35, 37) on the inner side of the respective housing part (1, 30), in particular wherein the ribs (2, 4, 6, 8, 32, 34, 36, 38) extend in a radiating manner, i.e. only in the radial direction from the central axis or axis of symmetry of the bearing receptacle (3, 5, 7, 33, 35, 37), the ribs (2, 4, 6, 8, 32, 34, 36, 38) extend from the bearing receptacle (3, 5, 7, 33, 35, 37) up to a wall, wherein the wall is formed running in encircling manner on the edge of a bottom side of the first housing part, and/or at least one or several of the ribs (2, 4, 6, 8, 32, 34, 36, 38) extend(s) up to a further bearing receptacle (3, 5, 7, 33, 35, 37), wherein all the ribs (2, 4, 6, 8, 32, 34, 36, 38) of the first housing part extend only up to a first, in particular single, axial position, wherein all the ribs (2, 4, 6, 8, 32, 34, 36, 38) of the second housing part extend only up to another, in particular single, axial position, characterised in that the ribs (2, 4, 6, 8, 32, 34, 36, 38) of the first housing part are axially spaced apart from the ribs (2, 4, 6, 8, 32, 34, 36, 38) of the second housing part, the first housing part being embodied in a pot shape, with a bottom side of the first housing part being delimited by a raised encircling wall against which lies a wall of the second housing part which is likewise embodied in a pot shape, the wall of the second housing part delimiting the bottom side of the second housing part and likewise running around the edge of the bottom part of the second housing part, the first housing part being connected in sealed manner with the second housing part by means of a seal arranged on the end face, which faces the second housing part, of the encircling wall of the first housing part.
A vinyl chloride resin composition for wallpaper, the vinyl chloride resin composition comprising, with respect to 100 parts by weight of a vinyl chloride resin, 40 parts by weight to 90 parts by weight of di(2-ethylhexyl)cyclohexane-1,4-dicarboxylate; 10 parts by weight to 30 parts by weight of a phosphate-based plasticizer; 50 parts by weight to 90 parts by weight of an antimony-based flame retardant; and 5 parts by weight to 20 parts by weight of a carboxylic acid ester-based viscosity depressant.
Method for the dosed dispensing of a fertilizer to potted plants, wherein - the fertilizer is provided in a viscous state, - the viscous fertilizer is provided in a container with a pressure-sensitive dosing device which is arranged on a bottom area of the container, - an internal pressure of the container is increased through manual compression, wherein a dispensing opening of the dosing device is opened and a dosed quantity of viscous fertilizer is thereby dispensed to a surface area of the soil surrounding the plant and - the viscous fertilizer is produced by using fibrous cellulose, wherein the dispensed fertilizer quantity adheres to the surface area of the soil. - the fertilizer is provided in a viscous state, - the viscous fertilizer is provided in a container with a pressure-sensitive dosing device which is arranged on a bottom area of the container, - an internal pressure of the container is increased through manual compression, wherein a dispensing opening of the dosing device is opened and a dosed quantity of viscous fertilizer is thereby dispensed to a surface area of the soil surrounding the plant and - the viscous fertilizer is produced by using fibrous cellulose, wherein the dispensed fertilizer quantity adheres to the surface area of the soil.