mhurhangee/ep-ind-claims huggingface dataset:
A woven fiber structure (1; 10; 100; 1000) comprising yarns made of a carbon precursor and presenting over at least one of its outside faces (F1; F2; F3; F4) a satin weave formed by interlinking a first set of yarns (T1S-T4S; T1Z-T4Z) with a second set of yarns (C1; C4); the first set of yarns (T1S-T4S; T1Z-T4Z) being in the majority over the outside face, the structure including over its outside face (F2; F3): - a first yarn (C21; C31) of the second set of yarns forming a first set of satin points (P21; P31); - a second yarn (C22; C32) of the second set of yarns, adjacent to the first yarn (C21; C31) of the second set of yarns, and forming a second set of satin points (P22; P32), the satin points of the second set being offset from the satin points of the first set by a first spacing (E21; E31); and - a third yarn (C23; C33) of the second set of yarns, adjacent to the second yarn (C22; C32) of the second set of yarns, and forming a third set of satin points (P23; P33), the structure being characterized in that said first set of yarns being formed by a mixture of yarns (T1S-T4S) having an S-twist and of yarns (T1Z-T4Z) having a Z-twist; and in that the satin points of the third set are offset from the satin points of the second set by a second spacing (E22; E32) different from the first spacing (E21; E31). - a first yarn (C21; C31) of the second set of yarns forming a first set of satin points (P21; P31); - a second yarn (C22; C32) of the second set of yarns, adjacent to the first yarn (C21; C31) of the second set of yarns, and forming a second set of satin points (P22; P32), the satin points of the second set being offset from the satin points of the first set by a first spacing (E21; E31); and - a third yarn (C23; C33) of the second set of yarns, adjacent to the second yarn (C22; C32) of the second set of yarns, and forming a third set of satin points (P23; P33),
A femtocell base station (210, 310, 510, 610, 810) serving a femtocell (208, 308, 508, 608, 808); the femtocell base station (210, 310, 510, 610, 810) configured for limiting adjacent channel interference, the femtocell being within the coverage area of a macrocell and the interfering channels involving the femtocell base station and the macrocell base station, comprising: means for transmitting downlink signals to a mobile station(206, 306a, 506, 606, 806a); means for switching between a transmit pulse-shaping filter (526a, 626a, 826a) and a narrower transmit pulse-shaping filter (550a, 650a, 850a); and means for providing at least one command to the mobile station about which receive pulse-shaping filter to use based on whether the transmit pulse-shaping filter or the narrower transmit pulse- shaping filter is being used at the femtocell base station, wherein the transmit pulse-shaping filter (526a, 626a, 826a) limits bandwidth of the downlink signals transmitted by the femtocell base station, and wherein the narrower transmit pulse-shaping filter (550a, 650a, 850a) limits the bandwidth of the downlink signals transmitted by the femtocell station to a greater extent than the transmit pulse-shaping filter (526a, 626a, 826a). means for transmitting downlink signals to a mobile station(206, 306a, 506, 606, 806a); means for switching between a transmit pulse-shaping filter (526a, 626a, 826a) and a narrower transmit pulse-shaping filter (550a, 650a, 850a); and means for providing at least one command to the mobile station about which receive pulse-shaping filter to use based on whether the transmit pulse-shaping filter or the narrower transmit pulse- shaping filter is being used at the femtocell base station, wherein the transmit pulse-shaping filter (526a, 626a, 826a) limits bandwidth of the downlink signals transmitted by the femtocell base station, and wherein the narrower transmit pulse-shaping filter (550a, 650a, 850a) limits the bandwidth of the downlink signals transmitted by the femtocell station to a greater extent than the transmit pulse-shaping filter (526a, 626a, 826a).
A method for acquisition and processing of marine seismic signals to extract up-going and down-going wave-fields from a seismic energy source (14, 16), the method comprising: deploying at least two marine seismic energy sources at different depths in a body of water and at substantially a same longitudinal position from a seismic vessel; actuating (100, 102) each of the seismic energy sources in a plurality of firing sequences, each sequence having a known, different time delay between firing each seismic energy source and a start of seismic signal recording; recording seismic signals corresponding to each firing sequence; extracting (110, 114) seismic energy corresponding to each of the seismic energy sources from the recorded seismic signals; separating an up-going and a down-going wave-field using the extracted seismic energy therefrom; the method being characterized in that it further comprises propagating the separated up-going and down-going wave-fields from each seismic energy source to at least one of a water surface and a common reference depth, 180 degree phase shifting one of the up-going and the down-going wave-field, and summing the propagated, phase shifted up-going and down-going wave-fields. deploying at least two marine seismic energy sources at different depths in a body of water and at substantially a same longitudinal position from a seismic vessel; actuating (100, 102) each of the seismic energy sources in a plurality of firing sequences, each sequence having a known, different time delay between firing each seismic energy source and a start of seismic signal recording; recording seismic signals corresponding to each firing sequence; extracting (110, 114) seismic energy corresponding to each of the seismic energy sources from the recorded seismic signals; separating an up-going and a down-going wave-field using the extracted seismic energy therefrom; the method being characterized in that it further comprises propagating the separated up-going and down-going wave-fields from each seismic energy source to at least one of a water surface and a common reference depth, 180 degree phase shifting one of the up-going and the down-going wave-field, and summing the propagated, phase shifted up-going and down-going wave-fields.
Control method for reducing the common-mode current in a power converter which comprises: - a rectifier stage (1, 1') connected to a number of input phases (R, S, T) and an inverter stage (2, 2') connected to a number of output phases (U, V, W), - a DC power supply bus linking the rectifier stage (1, 1') to the inverter stage (2, 2') and comprising a first power supply line and a second power supply line to each of which is applied an electrical potential, - the rectifier stage (1, 1') and the inverter stage (2, 2') each comprising at least two switching arms (10a, 10b, 10c, 20a, 20b, 20c) connected to the first power supply line and to the second power supply line, - first control means of the rectifier stage (1, 1') for selectively connecting, during a switchover time, each input phase (R, S, T) to the first power supply line or to the second power supply line, - second control means of the inverter stage (2, 2') for selectively connecting, during a switchover time, an output phase (U, V, W) to the first power supply line or to the second power supply line, - characterized in that, on each switching period, the rectifier stage (1, 1') and the inverter stage (2, 2') are controlled in a synchronized manner so that a variation of potential applied to an input phase (R, S, T) always corresponds to a variation of potential of the same sign applied to an output phase (U, V, W). - a rectifier stage (1, 1') connected to a number of input phases (R, S, T) and an inverter stage (2, 2') connected to a number of output phases (U, V, W), - a DC power supply bus linking the rectifier stage (1, 1') to the inverter stage (2, 2') and comprising a first power supply line and a second power supply line to each of which is applied an electrical potential, - the rectifier stage (1, 1') and the inverter stage (2, 2') each comprising at least two switching arms (10a, 10b, 10c, 20a, 20b, 20c) connected to the first power supply line and to the second power supply line, - first control means of the rectifier stage (1, 1') for selectively connecting, during a switchover time, each input phase (R, S, T) to the first power supply line or to the second power supply line, - second control means of the inverter stage (2, 2') for selectively connecting, during a switchover time, an output phase (U, V, W) to the first power supply line or to the second power supply line, - characterized in that, on each switching period, the rectifier stage (1, 1') and the inverter stage (2, 2') are controlled in a synchronized manner so that a variation of potential applied to an input phase (R, S, T) always corresponds to a variation of potential of the same sign applied to an output phase (U, V, W).
A toner cartridge, for mounting on an image forming device in a detachable manner, comprising a case provided with a toner chamber for storing toner, a toner outlet aligned and matched with a toner inlet of the image forming device, and a switch assembly mounted on the toner cartridge in a detachable manner and located between the toner outlet and the toner inlet for controlling outflow of the toner from the toner outlet, wherein the switch assembly is switched between a toner outlet close position and a toner outlet open position in a sliding manner, wherein the switch assembly comprises a switch member and an elastic element that is provided between the switch member and the case, characterized in that a main body of the switch member is provided, at a side close to an outer surface of the case, with a slot, one end of which is open and the other end is a blind end, a switch member mounting portion is provided with a block portion at a location corresponding to a lateral opening of the slot, the elastic element is located within the slot, and has one end abutting against the blind end of the slot and the other end abutting against the block portion, and the number of each of the elastic element, the slot and the block portion each is two, distributing on both sides of a central portion of the main body.
Air spring arrangement having an integrated control valve arrangement for the admission of compressed air into a spring pressure chamber formed between an outer tube, a rolling tube and an air spring bellows which connects said components, wherein the control valve arrangement consists of an individual ventilation valve and an individual venting valve, which are actuable by likewise integrated, mechanical actuating means in accordance with the air spring stroke position in order to ventilate or vent the spring pressure chamber, characterised in that the ventilation valve is arranged opposite the venting valve, with actuating tappets (8a; 9a) facing each other, wherein the mechanical actuating means which act on the actuating tappets while lying therebetween comprise a switching rod which is attached at one end to the outer tube or rolling tube and the sliding tracks (11a, 11b) of which switching rod, which are opposite each other and are each assigned to one of the actuating tappets (8a; 9a), act on the actuating tappets (8a; 9a) in order to actuate the valves depending on the stroke position.
Flap for closing an opening in the interior of a rail vehicle, which comprises a catch mechanism, wherein the catch mechanism is a bridle or a painter, which is provided for arrangement between the flap and a fixed mount, characterised in that, the bridle or painter - is rolled onto a roll in a closed position of the flap, and - is rolled off a roll when the flap is opened, and catches the flap in an open position. - is rolled onto a roll in a closed position of the flap, and - is rolled off a roll when the flap is opened, and catches the flap in an open position.
A composition comprising either SEQ ID NO: 1 or SEQ ID NO: 2, and paclitaxel, for use in inhibiting metastasis of ovarian cancer by restoring sensitivity to paclitaxel.
Cylindrical foam body with a central cavity, whereby the foam body is formed by a curved flexible foam strip of which two opposite ends are fastened together, whereby the foam body has a height, whereby the strip 2 has a length, a height (h) and a width (b), whereby after forming the foam body the longitudinal direction of the strip 2 is the height direction of the foam body, whereby the foam body has an outside and an inside, characterised in that the foam body is provided on its outside with two or more grooves that extend over the height of the foam body and which only cut into the foam body over a part of the distance between the outside and the inside.
A method of wireless communication performed by a user equipment, UE, wherein said UE is configured for coordinated multi-point, CoMP, and camps on a first base station of a first cell, the method comprising: receiving, directly from a second base station of a second cell, a reference signal configuration that includes information for determining a resource of a first reference signal for communication in the first cell; determining the resource for transmitting the first reference signal for communication in the first cell to be in time and frequency alignment with a second reference signal for communication in the second cell; and transmitting to, or receiving from, the first base station, first data in a slot comprising the first reference signal in the first cell, such that the first reference signal is aligned in time and frequency with the second reference signal in the slot for communicating second data in the second cell, wherein the first reference signal comprises a first sequence, and the second reference signal comprises a second sequence that is different from the first sequence. receiving, directly from a second base station of a second cell, a reference signal configuration that includes information for determining a resource of a first reference signal for communication in the first cell; determining the resource for transmitting the first reference signal for communication in the first cell to be in time and frequency alignment with a second reference signal for communication in the second cell; and transmitting to, or receiving from, the first base station, first data in a slot comprising the first reference signal in the first cell, such that the first reference signal is aligned in time and frequency with the second reference signal in the slot for communicating second data in the second cell, wherein the first reference signal comprises a first sequence, and the second reference signal comprises a second sequence that is different from the first sequence.
A computer-readable recording medium storing a computer program which, when executed by a relay station (RS 1#) of a wireless communication system, in which subscriber stations are each operable for communication with a base station, causes the relay station to perform a method, the base station being capable of performing simultaneous communications with a plurality of the subscriber stations simultaneously by exchange of packets each conforming with a layered protocol of said system, the packets comprising a first portion for defining physical layer, PHY, parameters and a second portion for defining media access layer, MAC, parameters, and communications between the subscriber stations and the base station being performed wholly or partly through the relay station, wherein the method comprises: receiving a plurality of packets from the subscriber stations; detecting the second portion of each of the packets; combining the detected second portions to form a second portion of at least one new packet; and transmitting the new packet to the base station. receiving a plurality of packets from the subscriber stations; detecting the second portion of each of the packets; combining the detected second portions to form a second portion of at least one new packet; and transmitting the new packet to the base station.
An oil or fat composition for use in treating or preventing diabetes, the composition comprising a triacylglycerol and an emulsifier as active ingredients, the triacylglycerol having one or two medium-chain fatty acid residue(s) in a molecule, and comprising a medium-chain fatty acid having 6 to 12 carbon atoms and a long-chain fatty acid having 16 to 24 carbon atoms as constituent fatty acids, and the emulsifier being a polyglycerol fatty acid ester, wherein a mass ratio of the triacylglycerol to the emulsifier in the oil or fat composition is 99.5:0.5 to 98:2.
A device arranged to transmit data in a discontinuous operation network, the device comprising provider equipment configured to: set the transmission timing of a Time Division Duplexing frame; transmit data onto lines (17, 18, 19) in the discontinuous operation network that transmits data during normal operation and transmits quiet or idle symbols on some lines during discontinuous operation; and select, based on data rate and power consumption of each of the lines (17, 18, 19), optimal configurations of transmit times such that maximum data rate is achieved with power consumption which is equal to and below limitations for the lines, and dynamically set a transmission timing of the data to be transmitted, in accordance with the selected configurations. set the transmission timing of a Time Division Duplexing frame; transmit data onto lines (17, 18, 19) in the discontinuous operation network that transmits data during normal operation and transmits quiet or idle symbols on some lines during discontinuous operation; and select, based on data rate and power consumption of each of the lines (17, 18, 19), optimal configurations of transmit times such that maximum data rate is achieved with power consumption which is equal to and below limitations for the lines, and dynamically set a transmission timing of the data to be transmitted, in accordance with the selected configurations.
An output driver in an integrated circuit, comprising: a driver circuit operable by a power supply voltage and a protected supply voltage, the driver circuit being coupled to an output pad and comprising a logic element for coupling an input signal to an output driver transistor; and a driver power conditioner configured to provide the protected supply voltage to at least one transistor of the driver circuit and to the logic element, wherein the driver power conditioner includes: an NMOS transistor that pulls a first node low if a ready signal is high indicating that the power supply voltage is present, a first PMOS transistor that isolates the first node from a second node at a fractional pad voltage derived from a voltage on the output pad if the ready signal is high; and a multiplexer comprising a second PMOS transistor that provides the power supply voltage as the protected supply voltage when the first node is low, and a third PMOS transistor that provides the fractional pad voltage as the protected supply voltage when the ready signal is low indicating that the power supply voltage is not present. a driver circuit operable by a power supply voltage and a protected supply voltage, the driver circuit being coupled to an output pad and comprising a logic element for coupling an input signal to an output driver transistor; and a driver power conditioner configured to provide the protected supply voltage to at least one transistor of the driver circuit and to the logic element, wherein the driver power conditioner includes: an NMOS transistor that pulls a first node low if a ready signal is high indicating that the power supply voltage is present, a first PMOS transistor that isolates the first node from a second node at a fractional pad voltage derived from a voltage on the output pad if the ready signal is high; and a multiplexer comprising a second PMOS transistor that provides the power supply voltage as the protected supply voltage when the first node is low, and a third PMOS transistor that provides the fractional pad voltage as the protected supply voltage when the ready signal is low indicating that the power supply voltage is not present. an NMOS transistor that pulls a first node low if a ready signal is high indicating that the power supply voltage is present, a first PMOS transistor that isolates the first node from a second node at a fractional pad voltage derived from a voltage on the output pad if the ready signal is high; and a multiplexer comprising a second PMOS transistor that provides the power supply voltage as the protected supply voltage when the first node is low, and a third PMOS transistor that provides the fractional pad voltage as the protected supply voltage when the ready signal is low indicating that the power supply voltage is not present.
A system for nucleic acid, NA, amplification, the system comprising: a light source configured to emit a first excitation light based on a control signal; a reaction chamber configured to house a solution comprising a plurality of first nucleic acids, NAs (132, 132a), the plurality of first NAs (132, 132a) being configured to amplify in response to the first excitation light, the solution being configured to emit a second light in response to heating by the first excitation light and to emit a third light in response to amplification of the plurality of first NAs (132, 132a); a detector configured to detect the second and third lights and to generate a temperature signal corresponding to the second light and a first fluorescence signal corresponding to the third light; a lens module configured to focus the second and third lights onto the detector; and a mirror configured to pass-through the first excitation light and to direct the second and third lights toward the lens module. a light source configured to emit a first excitation light based on a control signal; a reaction chamber configured to house a solution comprising a plurality of first nucleic acids, NAs (132, 132a), the plurality of first NAs (132, 132a) being configured to amplify in response to the first excitation light, the solution being configured to emit a second light in response to heating by the first excitation light and to emit a third light in response to amplification of the plurality of first NAs (132, 132a); a detector configured to detect the second and third lights and to generate a temperature signal corresponding to the second light and a first fluorescence signal corresponding to the third light; a lens module configured to focus the second and third lights onto the detector; and a mirror configured to pass-through the first excitation light and to direct the second and third lights toward the lens module.