mhurhangee/ep-ind-claims huggingface dataset:
Method for frequency and time synchronisation of a receiver for receiving OFDM signals on a fixed carrier frequency, in which, in the receiver, in a first procedural step, for the pilot tones transmitted together with the OFDM signals, the approximate nominal value for the frequency and time origin of the OFDM block is determined via a two-dimensional frequency-time search mode and by determining the area point with the optimum quality criterion of the OFDM signal, in a second, subsequent procedural step in the receiver, the phase of at least one of the pilot tones transmitted together with the OFDM signal is determined and averaged across several OFDM signal blocks and the more exact nominal value for the frequency and time origin of the OFDM block is determined from this, and the receiver is then synchronised to this frequency determined in the above manner, and the OFDM signal is demodulated starting with the time-origin value determined in this manner.
A sound-permeable membrane adapted, when placed over an opening for directing sound to or from a sound transducer, to prevent entry of foreign matters into the sound transducer through the opening while permitting passage of sound, the sound-permeable membrane comprising a non-porous film or a multilayer membrane comprising the non-porous film, characterised in the non-porous film being formed of oriented polytetrafluoroethylene.
A hydraulic press that comprises: - a structure which comprises at least one support for supporting the hydraulic press on the floor, - a working table (2, 53, 24) intended to house a set of pieces from which at least one piece is separated or removed by means of a compressive force exerted by the hydraulic press, - a collection area positioned below the working table (2, 53, 24) for receiving the piece separated or removed from the set, and - a damper connected between the working table (2, 53, 24) and the structure, wherein the damper is capable of being expanded to cause the ascent of the working table (2, 53, 24) with respect to the structure and is capable of being compressed to allow the retained descent of the working table (2, 53, 24) with respect to the structure, characterized in that - the structure comprises two opposed sides, and the working table (2, 53, 24) is extended from one side to the other such that the opposed sides of the working table (2, 53, 24) are aligned with the opposed sides of the structure, and in that - one damper is on each side of the structure, connected between the side of the structure and the side aligned with the working table (2, 53, 24). - a structure which comprises at least one support for supporting the hydraulic press on the floor, - a working table (2, 53, 24) intended to house a set of pieces from which at least one piece is separated or removed by means of a compressive force exerted by the hydraulic press, - a collection area positioned below the working table (2, 53, 24) for receiving the piece separated or removed from the set, and - a damper connected between the working table (2, 53, 24) and the structure, - the structure comprises two opposed sides, and the working table (2, 53, 24) is extended from one side to the other such that the opposed sides of the working table (2, 53, 24) are aligned with the opposed sides of the structure, - one damper is on each side of the structure, connected between the side of the structure and the side aligned with the working table (2, 53, 24).
A frame generation method in an optical transmission system (1-1, 1-2, 2) that transmits a transmission frame including a payload area for storing therein information data and a code area for storing therein an error correcting code with respect to the information data, the frame generation method comprising: a coding-gain calculation step of calculating coding gain based on quality of a communication path through which the transmission frame is transmitted; and a transmission-frame generation step of setting a variable parity area for storing therein the error correcting code in the payload area and generating a transmission frame in which the error correcting code is stored in the code area and the variable parity area, when it is determined that redundancy is insufficient with an error correcting code stored in the code area based on the coding gain, wherein tributary slots are allocated to the payload area, and the variable parity area is set in units of the tributary slots in the transmission-frame generation step. a coding-gain calculation step of calculating coding gain based on quality of a communication path through which the transmission frame is transmitted; and a transmission-frame generation step of setting a variable parity area for storing therein the error correcting code in the payload area and generating a transmission frame in which the error correcting code is stored in the code area and the variable parity area, when it is determined that redundancy is insufficient with an error correcting code stored in the code area based on the coding gain, wherein tributary slots are allocated to the payload area, and the variable parity area is set in units of the tributary slots in the transmission-frame generation step.
A method in a wireless communications device having a discontinuous receive mode in which a receiver is configured to monitor a first downlink signal during a series of regularly scheduled awake intervals and to monitor the first downlink signal for retransmissions during retransmission-monitoring intervals scheduled at a first predetermined delay from each detected data transmission to the receiver, wherein duration of a retransmission-monitoring interval is defined by a Discontinuous Reception, DRX, retransmission timer, the method comprising: detecting that a first retransmission-monitoring interval overlaps a previously scheduled radio activity during which the receiver is unavailable to monitor the first downlink signal; and the method being characterized in that it further comprises: adjusting the first retransmission-monitoring interval, adding an additional retransmission-monitoring interval, or both, responsive to said detecting, wherein adjusting the first retransmission-monitoring interval, adding an additional retransmission-monitoring interval, or both, comprises extending the first retransmission-monitoring interval for a duration equal to the overlap between the first retransmission-monitoring interval and the previously scheduled radio activity.
A method comprising: applying a UV-curable ink to a substrate; partially curing the ink by exposing the ink to UV radiation from an LED source; and exposing the partially cured ink to UV radiation from a flash lamp. applying a UV-curable ink to a substrate; partially curing the ink by exposing the ink to UV radiation from an LED source; and exposing the partially cured ink to UV radiation from a flash lamp.
A support interface (30a, 30b) for an engine casing, the interface comprising: a coupling part having an outer face with a cavity suitable for receiving a support arm (20a, 20b), and an inner face suitable for being mounted on an outer face of the engine casing, together with a first plurality of orifices between the outer face and the inner face of the coupling part; a first plurality of bolts, each having a threaded shank received in an orifice of the first plurality of orifices and a head suitable for bearing against the outer face of the coupling part; and a plurality of pegs, each having a threaded orifice in which the threaded shank of one of the bolts of the first plurality of bolts is engaged through a first end of the peg, each peg also having a second end that is enlarged and suitable for bearing against an inner face of the engine casing. a coupling part having an outer face with a cavity suitable for receiving a support arm (20a, 20b), and an inner face suitable for being mounted on an outer face of the engine casing, together with a first plurality of orifices between the outer face and the inner face of the coupling part; a first plurality of bolts, each having a threaded shank received in an orifice of the first plurality of orifices and a head suitable for bearing against the outer face of the coupling part; and a plurality of pegs, each having a threaded orifice in which the threaded shank of one of the bolts of the first plurality of bolts is engaged through a first end of the peg, each peg also having a second end that is enlarged and suitable for bearing against an inner face of the engine casing.
An absorbent article comprising an electrically insulating back sheet having an absorbent core on a body side of the back sheet and at least one liquid discharge sensor on a back side of the back sheet, and at least one hole through the back sheet communicating the at least one liquid discharge sensor with the absorbent core, so that the liquid discharge sensor exhibits a changed electrical property when a part of the absorbent core associated with the liquid discharge sensor through the at least one hole changes from a dry state to a wet state, wherein the at least one liquid discharge sensor is provided by conductive material that is partly communicated with the absorbent core by the at least one hole, wherein there is a plurality of conductive lines forming the at least one liquid discharge sensor, each of which lines are partly revealed by the at least one hole, and wherein the at least one liquid discharge sensor is disposed on a carrier sheet or substrate wherein there is provided a plurality of holes in the back sheet, each hole revealing to the absorbent core an underlying conductive portion of a liquid discharge sensor, and wherein each of the holes is longitudinally spaced from the other holes, wherein a longitudinal axis extends in a front to rear direction of the absorbent article, characterized in that: there are a plurality of spaced longitudinal conductive lines connected to a respective lateral conductive line, the lateral conductive lines being longitudinally spaced from one another, the at least one hole revealing part of each of the lateral conductive lines to the absorbent core in order to form the at least one liquid discharge sensor.
An intragastric balloon, comprising: a polymeric wall; a self-sealing valve system; a casing; a sealing member; a plunger; and a deflation component, wherein the casing has one or more vent pathways and is secured in the polymeric wall, wherein the plunger provides support to the sealing member and maintains the sealing member in position to block the one or more vent pathways in the casing when in place, and wherein the deflation component is situated in the casing and behind the plunger, wherein the deflation component is configured, in use, to expand upon exposure to moisture inside of the balloon via the one or more vent pathways, thereby pushing the plunger and thus the sealing member linearly through the casing to open the one or more vent pathways so as to provide fluid communication between an in vivo gastric environment and a lumen of the balloon. a polymeric wall; a self-sealing valve system; a casing; a sealing member; a plunger; and a deflation component,
A communications method comprising: receiving at a space-based component over a space-based component frequency band a plurality of signals including interference that is dependent on transmissions of a plurality of terminals communicating with the space-based component over a geographic area and interference that is independent of the transmissions of the plurality of terminals communicating with the space-based component over the geographic area; and reducing interference of the plurality of signals sequentially by first reducing the interference that is independent of the transmissions of the plurality of terminals communicating with the space-based component over the geographic area and then reducing the interference that is dependent on the transmissions of the plurality of terminals communicating with the space-based component over the geographic area. receiving at a space-based component over a space-based component frequency band a plurality of signals including interference that is dependent on transmissions of a plurality of terminals communicating with the space-based component over a geographic area and interference that is independent of the transmissions of the plurality of terminals communicating with the space-based component over the geographic area; and reducing interference of the plurality of signals sequentially by first reducing the interference that is independent of the transmissions of the plurality of terminals communicating with the space-based component over the geographic area and then reducing the interference that is dependent on the transmissions of the plurality of terminals communicating with the space-based component over the geographic area.
Sleeping container, comprising - a housing with an entry opening and a lying area inside the housing; - a cover with a holding device, wherein the cover is movably fastened to the housing by means of the holding device, wherein the cover is of such dimensions and is set up in such a manner as to close the entry opening, wherein the lying area can be horizontally aligned and adjoins an underside of the entry opening, characterized in that the holding device comprises at least one lever arm with a counterweight which is fastened to a first end of the lever arm, and wherein the cover is fastened to a second end of the lever arm. - a housing with an entry opening and a lying area inside the housing; - a cover with a holding device, wherein the cover is movably fastened to the housing by means of the holding device, wherein the cover is of such dimensions and is set up in such a manner as to close the entry opening, wherein the lying area can be horizontally aligned and adjoins an underside of the entry opening,
A method performed in a network node for determining a link adaptation parameter, SINR LA,i, for a wireless device, the network node supporting a multi-antenna transmission mode comprising spatial multiplexing layers for transmission of data on a channel between the wireless device and the network node, the method comprising: - determining a channel covariance matrix, H H H, for the channel, wherein H is the channel matrix for the channel, - approximating a post-equalizer signal to interference plus noise ratio, SINR approx., i, for a spatial multiplexing layer i using the channel covariance matrix, H H H, and characterized by - determining an offset, SINR offset, i to be the difference between a received signal to interference plus noise ratio, SINR received, and the approximated post-equalizer signal to interference plus noise ratio, SINR approx.,i, and - determining the link adaptation parameter SINR LA,i to be the approximated post-equalizer signal to interference plus noise ratio, SINR approx.,i, compensated by the determined offset SINR offset, i. - determining a channel covariance matrix, H H H, for the channel, wherein H is the channel matrix for the channel, - approximating a post-equalizer signal to interference plus noise ratio, SINR approx., i, for a spatial multiplexing layer i using the channel covariance matrix, H H H, and characterized by - determining an offset, SINR offset, i to be the difference between a received signal to interference plus noise ratio, SINR received, and the approximated post-equalizer signal to interference plus noise ratio, SINR approx.,i, and - determining the link adaptation parameter SINR LA,i to be the approximated post-equalizer signal to interference plus noise ratio, SINR approx.,i, compensated by the determined offset SINR offset, i. - determining an offset, SINR offset, i to be the difference between a received signal to interference plus noise ratio, SINR received, and the approximated post-equalizer signal to interference plus noise ratio, SINR approx.,i, and - determining the link adaptation parameter SINR LA,i to be the approximated post-equalizer signal to interference plus noise ratio, SINR approx.,i, compensated by the determined offset SINR offset, i.
A liquid pharmaceutical composition comprising a Hedera helix leaf extract and a stabilized dry powder of Pelargonium sidoides, wherein the stabilized dry powder is a dry powder of a mixture comprising a Pelargonium sidoides extract and maltodextrin.
A method in a wireless local area network, WLAN, said method being performed by a station, STA, and comprising: receiving a physical protocol data unit, PPDU, wherein the PPDU includes a preamble field and a data field, a high efficiency signal field, HE-SIG-A, of the preamble field includes a bandwidth identifier, wherein the bandwidth identifier in the PPDU indicates a data transmission channel; and determining the data transmission channel of the PPDU according to the bandwidth identifier; characterized in that, the bandwidth identifier includes three bits; and when the bandwidth identifier is a first value, the first value indicates a first mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the first mode, a primary 20 MHz channel and a secondary 40 MHz channel are included in the data transmission channel; and when the bandwidth identifier is a second value, the second value indicates a second mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the second mode, the primary 20 MHz channel, a secondary 20 MHz channel, and one 20 MHz channel of the secondary 40 MHz channel are included in the data transmission channel. receiving a physical protocol data unit, PPDU, wherein the PPDU includes a preamble field and a data field, a high efficiency signal field, HE-SIG-A, of the preamble field includes a bandwidth identifier, wherein the bandwidth identifier in the PPDU indicates a data transmission channel; and determining the data transmission channel of the PPDU according to the bandwidth identifier; characterized in that, the bandwidth identifier includes three bits; and when the bandwidth identifier is a first value, the first value indicates a first mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the first mode, a primary 20 MHz channel and a secondary 40 MHz channel are included in the data transmission channel; and when the bandwidth identifier is a second value, the second value indicates a second mode of the data transmission channel in a channel with a 80 MHz bandwidth; in the second mode, the primary 20 MHz channel, a secondary 20 MHz channel, and one 20 MHz channel of the secondary 40 MHz channel are included in the data transmission channel.
A method for holding a panel for a fuselage assembly, the method comprising: providing a cradle fixture comprising a base and an adjustable retaining structure having a curved shape;and engaging the adjustable retaining structure with the panel, wherein engaging the adjustable retaining structure with the panel comprises: moving the adjustable retaining structure relative to the base towards the panel such that the adjustable retaining structure impinges on the panel; and allowing the adjustable retaining structure to passively rotate about a spherical interface about an X-axis, a Y-axis, and a Z-axis until the adjustable retaining structure substantially aligns with the panel. providing a cradle fixture comprising a base and an adjustable retaining structure having a curved shape;and engaging the adjustable retaining structure with the panel, wherein engaging the adjustable retaining structure with the panel comprises: moving the adjustable retaining structure relative to the base towards the panel such that the adjustable retaining structure impinges on the panel; and allowing the adjustable retaining structure to passively rotate about a spherical interface about an X-axis, a Y-axis, and a Z-axis until the adjustable retaining structure substantially aligns with the panel. moving the adjustable retaining structure relative to the base towards the panel such that the adjustable retaining structure impinges on the panel; and allowing the adjustable retaining structure to passively rotate about a spherical interface about an X-axis, a Y-axis, and a Z-axis until the adjustable retaining structure substantially aligns with the panel.
A cylindrical shrink label comprising: a heat-shrinkable label base material; and jointed ends formed by arranging the label base material in a cylindrical shape, and overlapping and solvent welding opposite ends to each other; wherein a resin layer is not tacky at room temperature, is solvent weldable with respect to the label base material or the resin layer itself and wherein the resin layer soluble in a hot alkaline solution is formed at the jointed ends on at least one of the overlapped ends, and the resin layer comprises: a base resin soluble in the solvent but insoluble in the hot alkaline solution, wherein insolubility is determined as described herein; and a hot-alkaline-solution soluble resin soluble in the hot alkaline solution, wherein the hot-alkaline-solution soluble resin is a styrene-maleic acid copolymer or acrylic-based resin containing a carboxyl group having an acid value of 80-500; wherein the resin of the resin layer is a resin with an acid value of at least 10. a heat-shrinkable label base material; and jointed ends formed by arranging the label base material in a cylindrical shape, and overlapping and solvent welding opposite ends to each other; wherein a resin layer is not tacky at room temperature, is solvent weldable with respect to the label base material or the resin layer itself and wherein the resin layer soluble in a hot alkaline solution is formed at the jointed ends on at least one of the overlapped ends, and the resin layer comprises: a base resin soluble in the solvent but insoluble in the hot alkaline solution, wherein insolubility is determined as described herein; and a hot-alkaline-solution soluble resin soluble in the hot alkaline solution, wherein the hot-alkaline-solution soluble resin is a styrene-maleic acid copolymer or acrylic-based resin containing a carboxyl group having an acid value of 80-500; a base resin soluble in the solvent but insoluble in the hot alkaline solution, wherein insolubility is determined as described herein; and a hot-alkaline-solution soluble resin soluble in the hot alkaline solution, wherein the hot-alkaline-solution soluble resin is a styrene-maleic acid copolymer or acrylic-based resin containing a carboxyl group having an acid value of 80-500; wherein the resin of the resin layer is a resin with an acid value of at least 10.