mhurhangee/ep-ind-claims huggingface dataset:
A bass reflex port (30, 30A, 30B) comprising a tube body, wherein the inner wall surface of the tube body has a plurality of regions in which viscous resistances between the air moving inside the tube and the inner wall surface of the tube in the tube axis direction are different among said regions, characterized in that the plurality of regions are provided alternatingly along the circumferential direction of the inner wall surface, and the regions extend from one end to another end of the tube body in the tube axis direction, wherein the plurality of regions are formed of materials having different viscous resistances. a tube body, wherein the inner wall surface of the tube body has a plurality of regions in which viscous resistances between the air moving inside the tube and the inner wall surface of the tube in the tube axis direction are different among said regions, characterized in that the plurality of regions are provided alternatingly along the circumferential direction of the inner wall surface, and the regions extend from one end to another end of the tube body in the tube axis direction, wherein the plurality of regions are formed of materials having different viscous resistances.
A computer readable information recording medium storing a print job editing program, which, when executed by one or more processors of a computer, functions as: a part configured to receive an existing print job comprising printing settings with respect to a first printer, wherein printing settings relate to finishing processing such as folding, stapling, puncturing, saddle stitching binding, case binding, cutting, collating; a printer change reception part configured to receive a change of a designation of the printer apparatus to a second printer; a capability obtaining part configured to obtain information of a capability of the second printer; a determination part configured to determine, when the capability obtaining part has obtained the information of the capability of the second printer, functions that are unavailable in the second printer, from among functions that have been set in the received print job, based on the information of the capability of the second printer and information of printing conditions that the print job editing program has; and a display part configured to display a list of the functions that are unavailable in the second printer, and be used to confirm a cancellation of the settings of the functions that are unavailable in the second printer. a part configured to receive an existing print job comprising printing settings with respect to a first printer, wherein printing settings relate to finishing processing such as folding, stapling, puncturing, saddle stitching binding, case binding, cutting, collating; a printer change reception part configured to receive a change of a designation of the printer apparatus to a second printer; a capability obtaining part configured to obtain information of a capability of the second printer; a determination part configured to determine, when the capability obtaining part has obtained the information of the capability of the second printer, functions that are unavailable in the second printer, from among functions that have been set in the received print job, based on the information of the capability of the second printer and information of printing conditions that the print job editing program has; and a display part configured to display a list of the functions that are unavailable in the second printer, and be used to confirm a cancellation of the settings of the functions that are unavailable in the second printer.
A holographic display method for a holographic display device, the holographic display device comprising a spatial light modulator, comprising: acquiring an area of N th diffraction order corresponding to an eye position; according to the area of N th diffraction order, calculating a holographic complex amplitude distribution corresponding to a window of N th diffraction order to obtain window hologram information, a function of the holographic complex amplitude distribution being expressed by C(m, n)=A(m, n) ∗ exp[-iφ(m, n)/N]; encoding the window hologram information; and according to the encoded window hologram information, loading, to the spatial light modulator, the encoded window hologram information in the area of N th diffraction order to display a hologram, wherein C is the function of the holographic complex amplitude distribution, A is an amplitude function, i is a phase identifier, φ is a phase function, m is a sequence number of row where a pixel is located and n is a sequence number of column where the pixel is located, and N = ±j, where j is an integer other than 0 and multiples of 3. acquiring an area of N th diffraction order corresponding to an eye position; according to the area of N th diffraction order, calculating a holographic complex amplitude distribution corresponding to a window of N th diffraction order to obtain window hologram information, a function of the holographic complex amplitude distribution being expressed by C(m, n)=A(m, n) ∗ exp[-iφ(m, n)/N]; encoding the window hologram information; and according to the encoded window hologram information, loading, to the spatial light modulator, the encoded window hologram information in the area of N th diffraction order to display a hologram, wherein C is the function of the holographic complex amplitude distribution, A is an amplitude function, i is a phase identifier, φ is a phase function, m is a sequence number of row where a pixel is located and n is a sequence number of column where the pixel is located, and N = ±j, where j is an integer other than 0 and multiples of 3.
A network-based method for measuring quality of experience for media streaming in a network comprising: receiving a data flow between a source and destination on a network; identifying a media stream within the data flow; detecting at least one event related to the media stream indicative of a quality of experience as perceived by a subscriber; measuring a plurality of metrics relating to the media stream based on the at least one detected event, the metrics being selected from the group consisting of: buffer stall duration; buffer stall frequency; media streaming server start latency, bit rate transition frequency, and media restart; aggregating each of said metrics over a dimension of interest related to the network; normalizing each aggregated metric over a selected range based on a threshold value for each metric; and calculating a quality of experience value based on the normalized aggregated metrics. receiving a data flow between a source and destination on a network; identifying a media stream within the data flow; detecting at least one event related to the media stream indicative of a quality of experience as perceived by a subscriber; measuring a plurality of metrics relating to the media stream based on the at least one detected event, the metrics being selected from the group consisting of: buffer stall duration; buffer stall frequency; media streaming server start latency, bit rate transition frequency, and media restart; aggregating each of said metrics over a dimension of interest related to the network; normalizing each aggregated metric over a selected range based on a threshold value for each metric; and calculating a quality of experience value based on the normalized aggregated metrics.
A pharmaceutical composition for use in alleviating or delaying the onset of liver fibrosis in a subject, the composition comprising an effective amount of an IL-20 antagonist and a pharmaceutically acceptable carrier, wherein the IL-20 antagonist is an anti-IL-20 antibody, an antisense nucleic acid directed to IL-20, a small interfering RNA (siRNA) directed to an IL-20 nucleic acid, a microRNA (miRNA) directed toward an IL-20 nucleic acid, an anti-IL-20R antibody, an antisense nucleic acid directed to a subunit of an IL-20 receptor, an siRNA or miRNA directed to a nucleic acid encoding a subunit of an IL-20R.
An antimicrobial cap device comprising: an opening having a diameter sufficient to receive a connector having an aperture, an internal geometry, and a bottom; an inner surface defining a volume sufficient to receive the connector; and an antimicrobial plug having a proximal end attached to a base of the antimicrobial cap, and a distal end extending outwardly therefrom, the antimicrobial plug having a length and diameter configured to be inserted through the aperture of the connector, such that the distal end is positioned in proximity to the bottom of the connector when the connector is inserted into the antimicrobial cap, characterized in that the antimicrobial cap is hingedly coupled to a connector, wherein the connector is a catheter adapter and cap is configured to provide a physical barrier for the connector and further characterized in that antimicrobial plug is curved in such a manner that the curved configuration increases the overall length of plug yet prevents contact between the distal end and the aperture upon hingedly closing the cap. an opening having a diameter sufficient to receive a connector having an aperture, an internal geometry, and a bottom; an inner surface defining a volume sufficient to receive the connector; and an antimicrobial plug having a proximal end attached to a base of the antimicrobial cap, and a distal end extending outwardly therefrom, the antimicrobial plug having a length and diameter configured to be inserted through the aperture of the connector, such that the distal end is positioned in proximity to the bottom of the connector when the connector is inserted into the antimicrobial cap, characterized in that the antimicrobial cap is hingedly coupled to a connector, wherein the connector is a catheter adapter and cap is configured to provide a physical barrier for the connector and further characterized in that antimicrobial plug is curved in such a manner that the curved configuration increases the overall length of plug yet prevents contact between the distal end and the aperture upon hingedly closing the cap.
Munition with an explosives-free projectile (20, 20', 30, 30', 40) having at least Munition with an explosives-free projectile (20, 20', 30, 30', 40) having at least one projectile body (1, 42) and a projectile cover (2, 43) and also a supporting structure (3, 44), wherein the supporting structure (3, 44) accommodates an explosives-free firing mechanism (4, 8, 9, 10, 16, 17, 18, 45), and a cavity (5, 46) formed in the projectile (20, 20', 30, 30', 40) serves to accommodate an active mass (12, 14, 15, 47), wherein the active mass (12, 14, 15, 47) consists of a fuel or a fuel mixture which on disintegration at the target is released as a flammable air-fuel mixture which, by means at least of the explosives-free, spark-generating firing mechanism (4, 8, 9, 10, 16, 17, 18, 45) that utilizes the launch energy and/or the kinetic energy of the impact disintegration, is brought spontaneously to reaction and generates a multi-spectral signature.
A biopsy device comprising: (a) a needle, wherein the needle comprises: (i) a first lumen configured to receive a cutter, ii) a transverse tissue receiving aperture in fluid communication with the first lumen, and (iii) a second lumen in fluid communication with the first lumen; and (b) a handpiece (100, 200), wherein the needle extends from the handpiece (100, 200); (c) a hollow cutter defining a cutter lumen, wherein the cutter is rotatable and translatable within the first lumen of the needle, and configured to sever a biopsy sample from tissue protruding through the transverse tissue receiving aperture; (d) a tissue sample holder configured to collect tissue samples communicated proximally through cutter lumen, wherein the cutter lumen is in fluid communication with the interior of the tissue sample holder; (e) a vacuum pump in fluid communication with the interior of the tissue sample holder; and (g) a vacuum sensor, wherein the sensor is configured to sense a level of vacuum within the tissue sample holder and to communicate a vacuum signal to a component of the biopsy device that is configured to process the vacuum level signal; characterized in that the sensor is positioned within the handpiece (100, 200), wherein the biopsy device is configured such that, in response to the vacuum level signal, the vacuum pump communicates vacuum to the cutter lumen. (a) a needle, wherein the needle comprises: (i) a first lumen configured to receive a cutter, ii) a transverse tissue receiving aperture in fluid communication with the first lumen, and (iii) a second lumen in fluid communication with the first lumen; and (i) a first lumen configured to receive a cutter, ii) a transverse tissue receiving aperture in fluid communication with the first lumen, and (iii) a second lumen in fluid communication with the first lumen; and (b) a handpiece (100, 200), wherein the needle extends from the handpiece (100, 200); (c) a hollow cutter defining a cutter lumen, wherein the cutter is rotatable and translatable within the first lumen of the needle, and configured to sever a biopsy sample from tissue protruding through the transverse tissue receiving aperture; (d) a tissue sample holder configured to collect tissue samples communicated proximally through cutter lumen, wherein the cutter lumen is in fluid communication with the interior of the tissue sample holder; (e) a vacuum pump in fluid communication with the interior of the tissue sample holder; and (g) a vacuum sensor, wherein the sensor is configured to sense a level of vacuum within the tissue sample holder and to communicate a vacuum signal to a component of the biopsy device that is configured to process the vacuum level signal; characterized in that
Method for operating a vehicle antenna of a track-bound vehicle, wherein the vehicle antenna is embodied as a balise antenna and is directed toward the track system and wherein the vehicle antenna carries out a transmission of data from and/or to a track-side facility, characterised in that - prior to the transmission of data with the track-side facility, the vehicle antenna is switched from a resting state into an operating state and - following the transmission of data with the track-side facility is switched back from the operating state into the resting state. - prior to the transmission of data with the track-side facility, the vehicle antenna is switched from a resting state into an operating state and - following the transmission of data with the track-side facility is switched back from the operating state into the resting state.
A cooking apparatus comprising: a working coil; an inverter configured to output a resonant current to the working coil; a current detector configured to detect the resonant current and output a detection value corresponding to the resonant current; a voltage detector configured to detect an input voltage to the cooking apparatus; and a controller configured to: control the inverter to flow a first resonant current through the working coil, control the inverter to flow, through the working coil, a second resonant current having a frequency different from the first resonant current, compensate a first detection value for the first resonant current based on the detected input voltage, and compensate a second detection value for the second resonant current based on the detected input voltage, and determine, based on a difference between the compensated first detection value and the compensated second detection value, whether a target object that is located adjacent to the working coil is a predetermined object. a working coil; an inverter configured to output a resonant current to the working coil; a current detector configured to detect the resonant current and output a detection value corresponding to the resonant current; a voltage detector configured to detect an input voltage to the cooking apparatus; and a controller configured to: control the inverter to flow a first resonant current through the working coil, control the inverter to flow, through the working coil, a second resonant current having a frequency different from the first resonant current, compensate a first detection value for the first resonant current based on the detected input voltage, and compensate a second detection value for the second resonant current based on the detected input voltage, and determine, based on a difference between the compensated first detection value and the compensated second detection value, whether a target object that is located adjacent to the working coil is a predetermined object. control the inverter to flow a first resonant current through the working coil, control the inverter to flow, through the working coil, a second resonant current having a frequency different from the first resonant current, compensate a first detection value for the first resonant current based on the detected input voltage, and compensate a second detection value for the second resonant current based on the detected input voltage, and determine, based on a difference between the compensated first detection value and the compensated second detection value, whether a target object that is located adjacent to the working coil is a predetermined object.
A method of operating a clothes washer, comprising: supplying wash liquid comprising a mixture of detergent and water to a wash basket defining a treating chamber; rotating, while the wash liquid is present, an electric motor operating at a first duty cycle greater than 75% for a horizontal axis clothes washer, or greater than 0.50 rotations per stroke or 1.00 rotations per second for a vertical axis clothes washer to define a high duty cycle wash phase; and after the high duty cycle wash phase, rotating while the wash liquid is present the electric motor operating at a second duty cycle less than 50% for the horizontal axis clothes washer, or less than 1.75 rotations per stroke or 1.75 rotations per second for a vertical axis clothes washer to define a low duty cycle wash phase; and wherein the wash basket is rotated by the motor 40; and wherein parameters of the high duty cycle wash phase is determined by a controller, based on at least one of a set of load characteristics or a set of operating characteristics. supplying wash liquid comprising a mixture of detergent and water to a wash basket defining a treating chamber; rotating, while the wash liquid is present, an electric motor operating at a first duty cycle greater than 75% for a horizontal axis clothes washer, or greater than 0.50 rotations per stroke or 1.00 rotations per second for a vertical axis clothes washer to define a high duty cycle wash phase; and after the high duty cycle wash phase, rotating while the wash liquid is present the electric motor operating at a second duty cycle less than 50% for the horizontal axis clothes washer, or less than 1.75 rotations per stroke or 1.75 rotations per second for a vertical axis clothes washer to define a low duty cycle wash phase; and wherein the wash basket is rotated by the motor 40; and wherein parameters of the high duty cycle wash phase is determined by a controller, based on at least one of a set of load characteristics or a set of operating characteristics.
A cosmetic or dermocosmetic agent consisting of: - galactomannans with an average molar mass of between 5 and 120 kDa, and - crosslinked sulfated galactans with an average molar mass of between 7 and 1100 kDa, characterized in that the galactomannans are obtained by hydrolysis of native galactomannans of Caesalpinia spinosa, of Cyamopsis tetragonoloba, and/or of Ceratonia siliqua and in that the crosslinked sulfated galactans are obtained by hydrolysis of native sulfated galactans of Kappaphycus alvarezii, of Eucheuma cottonii, and/or of Chondrus crispus. - galactomannans with an average molar mass of between 5 and 120 kDa, and - crosslinked sulfated galactans with an average molar mass of between 7 and 1100 kDa,
A method for a watcher to receive presence information, comprising: the watcher requesting presence information from a presence access layer residing in one or more network components distinct from a presence server and being configured to abstract and simplify complex presence information received from the presence server; the watcher disconnecting from the presence access layer; the presence access layer receiving the requested information through a persistent session with the presence server; the presence access layer storing the requested information; and the presence access layer delivering abstracted and simplified presence information to the watcher after the watcher reconnects to the presence access layer. the watcher requesting presence information from a presence access layer residing in one or more network components distinct from a presence server and being configured to abstract and simplify complex presence information received from the presence server; the watcher disconnecting from the presence access layer; the presence access layer receiving the requested information through a persistent session with the presence server; the presence access layer storing the requested information; and the presence access layer delivering abstracted and simplified presence information to the watcher after the watcher reconnects to the presence access layer.
A cuprate compound according to one of the following formulae or (XIII) wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9 H, X, means substituted or unsubstituted C 1 -C 10 -alkyl, substituted or unsubstituted C 1 -C 10 -alkenyl or substituted or unsubstituted C 6 -C 20 -aryl, wherein the C 1 -C 10 -alkyl, the C 1 -C 10 -alkenyl and the C 6 -C 20 -aryl can each be interrupted by one or more nitrogen, oxygen and/or sulfur atoms, X means F, Cl, Br, I, NO 2, N(R 1' R 2'), wherein R 1', R 2', independently of other radicals R 1', R 2' in the same molecule H, means substituted or unsubstituted C 1 -C 10 -alkyl, substituted or unsubstituted C 1 -C 10 -alkenyl or substituted or unsubstituted C 6 -C 20 -aryl, wherein the C 1 -C 10 -alkyl, the C 1 -C 10 -alkenyl and the C 6 -C 20 -aryl can each be interrupted by one or more nitrogen, oxygen and/or sulfur atoms, E independently of other radicals E in the same molecule, is a radical of the general formula NR2, PR2 or OR, wherein each radical R, independently of other radicals R in the same molecule H, X, means substituted or unsubstituted C 1 -C 10 alkyl, substituted or unsubstituted C 1 -C 10 alkenyl or substituted or unsubstituted C 6 -C 20 aryl, wherein the C 1 -C 10 alkyl, the C 1 -C 10 alkenyl and the C 6 -C 20 aryl can each be interrupted by one or more nitrogen, oxygen and/or sulfur atoms, Ph is a phenyl radical and An - is any kind of anion. R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9 H, X, means substituted or unsubstituted C 1 -C 10 -alkyl, substituted or unsubstituted C 1 -C 10 -alkenyl or substituted or unsubstituted C 6 -C 20 -aryl, wherein the C 1 -C 10 -alkyl, the C 1 -C 10 -alkenyl and the C 6 -C 20 -aryl can each be interrupted by one or more nitrogen, oxygen and/or sulfur atoms, X means F, Cl, Br, I, NO 2, N(R 1' R 2'), wherein R 1', R 2', independently of other radicals R 1', R 2' in the same molecule H, means substituted or unsubstituted C 1 -C 10 -alkyl, substituted or unsubstituted C 1 -C 10 -alkenyl or substituted or unsubstituted C 6 -C 20 -aryl, wherein the C 1 -C 10 -alkyl, the C 1 -C 10 -alkenyl and the C 6 -C 20 -aryl can each be interrupted by one or more nitrogen, oxygen and/or sulfur atoms, E independently of other radicals E in the same molecule, is a radical of the general formula NR2, PR2 or OR, wherein each radical R, independently of other radicals R in the same molecule H, X, means substituted or unsubstituted C 1 -C 10 alkyl, substituted or unsubstituted C 1 -C 10 alkenyl or substituted or unsubstituted C 6 -C 20 aryl, wherein the C 1 -C 10 alkyl, the C 1 -C 10 alkenyl and the C 6 -C 20 aryl can each be interrupted by one or more nitrogen, oxygen and/or sulfur atoms, Ph is a phenyl radical and An - is any kind of anion.