mhurhangee/ep-ind-claims huggingface dataset:
A radio device, comprising: a transmitter unit comprising a modulator configured to generate M-Pulse Amplitude Modulation communications symbols containing communications data; a Fast Walsh Transform, circuit connected to the modulator and configured to receive the communications symbols from the modulator and orthogonally encode and band-spread the communications symbols using the Fast Walsh Transform; a guard time circuit connected to the Fast Walsh Transform circuit and configured to cyclically extend the output of Fast Walsh Transform circuit by a guard time; a frequency modulation circuit connected to the guard time circuit and configured to frequency modulate the communications symbols wherein a constant envelope orthogonal Walsh modulated communications signal is generated having a plurality of orthogonal waveforms each forming a separate Walsh communications channel; wherein the waveform generated by Fast Walsh Transform is operative using adds and substracts only and said transmitter unit implemented in Field Programmable Gate Array circuits, wherein at least one of said separate Walsh communications channels comprises a broadcast channel adapted to transmit a communications signal containing communications data to a plurality of receivers; and wherein the transmitter unit further comprising a forward error correction encoder. a transmitter unit comprising a modulator configured to generate M-Pulse Amplitude Modulation communications symbols containing communications data; a Fast Walsh Transform, circuit connected to the modulator and configured to receive the communications symbols from the modulator and orthogonally encode and band-spread the communications symbols using the Fast Walsh Transform; a guard time circuit connected to the Fast Walsh Transform circuit and configured to cyclically extend the output of Fast Walsh Transform circuit by a guard time; a frequency modulation circuit connected to the guard time circuit and configured to frequency modulate the communications symbols wherein a constant envelope orthogonal Walsh modulated communications signal is generated having a plurality of orthogonal waveforms each forming a separate Walsh communications channel; wherein the waveform generated by Fast Walsh Transform is operative using adds and substracts only and said transmitter unit implemented in Field Programmable Gate Array circuits, wherein at least one of said separate Walsh communications channels comprises a broadcast channel adapted to transmit a communications signal containing communications data to a plurality of receivers; and wherein the transmitter unit further comprising a forward error correction encoder.
A method for wireless communication at a base station, comprising: identifying a resource allocation including a resource block, RB,,in a transmission time-interval, TTI, for transmission of data to a receiver; identifying control information to be included in the RB; signaling, using a transmission time interval-level, TTI-level, common control signal in the TTI, a location of the control information within the RB; and multiplexing the control information with the data within the RB included in the resource allocation; transmitting a wireless transmission including the resource allocation including the RB having the control information and data. identifying a resource allocation including a resource block, RB,,in a transmission time-interval, TTI, for transmission of data to a receiver; identifying control information to be included in the RB; signaling, using a transmission time interval-level, TTI-level, common control signal in the TTI, a location of the control information within the RB; and multiplexing the control information with the data within the RB included in the resource allocation; transmitting a wireless transmission including the resource allocation including the RB having the control information and data.
A method of manufacturing a structure attached to a base component, comprising: associating a first nozzle with the base component, the first nozzle having a first aperture size; forming an outer shell portion of the structure on the base component by extruding a first material through the first nozzle, wherein the outer shell portion is formed with at least one opening providing access to an interior of the outer shell portion; removing the first nozzle from an area near the outer shell portion; associating a second nozzle having a second aperture size with the at least one opening, wherein the second aperture size is greater than the first aperture size; and extruding a second material through the second nozzle and into the at least one opening, thereby forming an inner portion of the structure. associating a first nozzle with the base component, the first nozzle having a first aperture size; forming an outer shell portion of the structure on the base component by extruding a first material through the first nozzle, wherein the outer shell portion is formed with at least one opening providing access to an interior of the outer shell portion; removing the first nozzle from an area near the outer shell portion; associating a second nozzle having a second aperture size with the at least one opening, wherein the second aperture size is greater than the first aperture size; and extruding a second material through the second nozzle and into the at least one opening, thereby forming an inner portion of the structure.
Mechanical assembly of a multistrand cable comprising a plurality of strands and of a support, the plurality of strands being aligned at the level of the support in a first direction and the support having a slot forming, in a plane perpendicular to the first direction, two convex edges facing one another, the assembly of the plurality of strands on the support being performed by pressing the plurality of strands around the convex edges leading to deformation of part of the plurality of strands around the convex edges, characterized in that the pressing is performed using a tool comprising a die a die cushion and a punch on the part of the strands that are positioned between the edges of the slot such that part of the plurality of pressed strands passes through the slot and overspills around the convex edges on the sides thereof, and in that because the pressing has compressed the strands together, the strands are joined together and joined to the support by creep.
A filter case comprising: a case having a cylindrical shape, the case having an accommodation space formed therein; a first cover having an inlet formed in a center thereof, the first cover closing one side of the case; a second cover having an outlet formed in a center thereof, the second cover closing an opposite side of the case; a capacitive deionization electrode accommodated in the accommodation space; a first flow guide formed on an inner surface of the first cover so as to protrude; a division unit comprising a partition plate located in the case, the division unit dividing the accommodation space into two portions; a first accommodation portion formed between the first cover and the partition plate in the accommodation space; a second accommodation portion formed between the second cover and the partition plate in the accommodation space; a second flow guide formed on one surface of the partition plate so as to protrude; one or more division plates disposed in the first accommodation portion and the second accommodation portion; division-plate flow grooves formed in circumferential surfaces of the division plates so as to be arranged at regular intervals; division-plate discharge holes formed through centers of the division plates; and a seating protrusion formed on one surface or on both opposite surfaces of each of the division plates to define a position of a CDI unit. a case having a cylindrical shape, the case having an accommodation space formed therein; a first cover having an inlet formed in a center thereof, the first cover closing one side of the case; a second cover having an outlet formed in a center thereof, the second cover closing an opposite side of the case; a capacitive deionization electrode accommodated in the accommodation space; a first flow guide formed on an inner surface of the first cover so as to protrude; a division unit comprising a partition plate located in the case, the division unit dividing the accommodation space into two portions; a first accommodation portion formed between the first cover and the partition plate in the accommodation space; a second accommodation portion formed between the second cover and the partition plate in the accommodation space; a second flow guide formed on one surface of the partition plate so as to protrude; one or more division plates disposed in the first accommodation portion and the second accommodation portion; division-plate flow grooves formed in circumferential surfaces of the division plates so as to be arranged at regular intervals; division-plate discharge holes formed through centers of the division plates; and a seating protrusion formed on one surface or on both opposite surfaces of each of the division plates to define a position of a CDI unit.
A closed package of juice, which is made by folding and heat sealing from polymer-coated packaging board that comprises a base board, a polymer layer outside the same, constituting the outer surface of the package, and an oxygen barrier layer (4, 4') and at least one polymer layer, which are inside the base board in the package, characterized in that, to decrease the flavour scalping from the packaged product, the package comprises a layer of ethylene methyl acrylate copolymer having a weight of 15 to 50 g/m 2 and lying inside the base board and the oxygen barrier layer (4, 4').
A quick release buckle, comprising a first and a second buckle components (1,2) configured for interlocking with one another in a closed position of the buckle, wherein said first buckle component has a housing and a diffusion element for diffusing a volatile substance, characterized in that the diffusion element is removably housed within said housing, the housing having an opening for the passage of said diffusion element, wherein said first and second buckle components (1,2) are configured so that in the closed position of the buckle, the second buckle component closes said opening of the housing in such a manner that extraction of the diffusion element from the first component is prevented.
A double delivery pump for an electric household appliance, in particular a professional dishwasher and/or glasswasher, comprising a pump body fluid-sealingly housing a centrifugal impeller and provided with a first delivery pipe and a second delivery pipe obtained on the pump body in diametrically opposite tangential positions with respect to a rotation axis of the impeller, and with first fastening means to a casing of the electric household appliance; characterised in that said first and second delivery pipes (6, 7) display passage sections which are different from one another; the pump also comprising, in combination, second fastening means to the casing of the electric household appliance, the first and second fastening means (9, 12) being designed to be selectively used to assemble the pump body, either with the first delivery pipe arranged above and the second delivery pipe arranged below the rotation axis of the impeller or vice versa, so that the pump, depending on whether the first or the second fastening means are selected, may be used for an electric household appliance consisting either of a dishwasher or a glasswasher
Method for fabricating an external element or a timepiece dial made of non-conductive material, in which a basic cycle is performed at least once, including, in this order, the following steps: - making a base from a substrate made of non-conductive material, or ceramic or glass or sapphire or at least partially amorphous material, - dry coating said base with at least a first sacrificial protective metal layer; - etching a decoration, to a depth at least equal to the local thickness of said first sacrificial protective metal layer, by means of an ultrashort pulse laser of the femto laser or pico laser type; - coating said decoration and the remaining part of said first sacrificial protective metal layer with at least a second metal and/or coloured decorative treatment layer; - chemically removing each said first sacrificial protective metal layer, and in which, before or after chemical removal of each said first sacrificial protective metal layer, the compound thus formed is mechanically levelled on the upper level of said base. - making a base from a substrate made of non-conductive material, or ceramic or glass or sapphire or at least partially amorphous material, - dry coating said base with at least a first sacrificial protective metal layer; - etching a decoration, to a depth at least equal to the local thickness of said first sacrificial protective metal layer, by means of an ultrashort pulse laser of the femto laser or pico laser type; - coating said decoration and the remaining part of said first sacrificial protective metal layer with at least a second metal and/or coloured decorative treatment layer; - chemically removing each said first sacrificial protective metal layer,
A blood component container assembly including a blood component container and an RFID tag (24, 28, 32) secured to the container in which the assembly includes a generally tubular port (12A, 12B, 12C, 12D) extending from the container; and the RFID tag (24, 28, 32) is located within the tubular port (12A, 12B, 12C, 12D).
An apparatus, comprising: a single battery ribbon comprising a first portion, a second portion, and a flexible interconnecting portion between the first portion and the second portion, wherein the first portion comprises a first rigid section, wherein the second portion comprises a second rigid section, and wherein the first portion, the second portion, and the flexible interconnecting portion form a continuous single stacked layer comprising, in a stack, an anode and a cathode, and wherein each of the anode and cathode of the single battery ribbon are configured to each be continuous along a length of the single battery ribbon; and vacuum packaging surrounding the single battery ribbon, wherein the vacuum packaging comprises a middle connecting portion configured to contact a first side of the flexible interconnecting portion and a second opposite side of the flexible interconnecting portion. a single battery ribbon comprising a first portion, a second portion, and a flexible interconnecting portion between the first portion and the second portion, wherein the first portion comprises a first rigid section, wherein the second portion comprises a second rigid section, and wherein the first portion, the second portion, and the flexible interconnecting portion form a continuous single stacked layer comprising, in a stack, an anode and a cathode, and wherein each of the anode and cathode of the single battery ribbon are configured to each be continuous along a length of the single battery ribbon; and vacuum packaging surrounding the single battery ribbon, wherein the vacuum packaging comprises a middle connecting portion configured to contact a first side of the flexible interconnecting portion and a second opposite side of the flexible interconnecting portion.
A method for receiving Assistance Data messages for location services, comprising: receiving an information block, wherein the information block includes a master schedule defined for different types of AD messages broadcast for location services and a version identifier associated with changes in the master schedule; determining a first AD message for use with location services; identifying a schedule for the first AD message from the master schedule; and receiving the first AD message, using the identified schedule. receiving an information block, wherein the information block includes a master schedule defined for different types of AD messages broadcast for location services and a version identifier associated with changes in the master schedule; determining a first AD message for use with location services; identifying a schedule for the first AD message from the master schedule; and receiving the first AD message, using the identified schedule.
A method for generating an additional unique credential from a same credential request value in a secure digital communication system having a trusted entity CA (30, 40) and at least one subscriber entity A, comprising: a) obtaining a secret value d A and associated public value G A for entity A; b) sending the same credential request to the trusted entity CA comprising a first value associated with the public value G A where sending the same credential request comprises sending to the trusted entity CA a previously issued implicit certificate IC A associated with the public key value G A; and c) receiving from the trusted entity CA a unique credential and associated private key contribution value S A, thereby obtaining the additional unique credential from the corresponding trusted entity CA d) generate a private key from the received private key contribution value S A using the secret value d A. a) obtaining a secret value d A and associated public value G A for entity A; b) sending the same credential request to the trusted entity CA comprising a first value associated with the public value G A where sending the same credential request comprises sending to the trusted entity CA a previously issued implicit certificate IC A associated with the public key value G A; and c) receiving from the trusted entity CA a unique credential and associated private key contribution value S A, thereby obtaining the additional unique credential from the corresponding trusted entity CA d) generate a private key from the received private key contribution value S A using the secret value d A.
A method of processing optical signals in an optical channel characterized by a channel coherence time, the method comprising: mixing light comprising different spatial modes of a first optical link (146a, 546a), said mixing being performed in an optical mode mixer (150, 500) disposed between said first optical link (146a, 546a) and a second optical link (146b, 546b), wherein the optical channel comprises the first optical link (146a, 546a) and the second optical link(146b, 546b); coupling the light output from the optical mode mixer into different spatial modes of the second optical link (146b, 546b); and dynamically reconfiguring the mode-mixing characteristics of the optical mode mixer (150, 500) to controllably change on a time scale that is shorter than the channel coherence time during transmission through the optical channel of a modulated optical signal carrying data, said modulated optical signal being directed from said first optical link (146a, 546a), through said optical mode mixer (150, 500), to said second optical link (146b, 546b). mixing light comprising different spatial modes of a first optical link (146a, 546a), said mixing being performed in an optical mode mixer (150, 500) disposed between said first optical link (146a, 546a) and a second optical link (146b, 546b), wherein the optical channel comprises the first optical link (146a, 546a) and the second optical link(146b, 546b); coupling the light output from the optical mode mixer into different spatial modes of the second optical link (146b, 546b); and dynamically reconfiguring the mode-mixing characteristics of the optical mode mixer (150, 500) to controllably change on a time scale that is shorter than the channel coherence time during transmission through the optical channel of a modulated optical signal carrying data, said modulated optical signal being directed from said first optical link (146a, 546a), through said optical mode mixer (150, 500), to said second optical link (146b, 546b).
A rolling device comprising: first and second rolls (12A, 12B) adjacent to each other; a first axle box rotatably supporting a shaft of the first roll; a second axle box rotatably supporting a shaft of the second roll and adjacent to the first axle box; an adjustment unit configured to adjust a position of the first axle box so as to move the first roll toward the second roll or to separate the first roll from the second roll; at least one sensor unit interposed between the first axle box and the second axle box and being in contact with both of the axle boxes (14A, 14B); and a controller, wherein the sensor unit includes a distance sensor including an extension/contraction portion configured to extend and contract in one direction in which the first and second axle boxes (14A, 14B) are aligned, wherein the controller is configured to control the adjustment unit based on an extension/contraction amount of the extension/contraction portion, wherein the at least one sensor unit includes two sensor units, wherein the shaft of the first roll is rotatably supported by a first bearing incorporated in the first axle box, and wherein the shaft of the second roll is rotatably supported by a second bearing incorporated in the second axle box, and characterized in that the two sensor units are disposed in positions that are substantially symmetrical about a central point of the first and second bearings (16A, 16B) when viewed from the one direction. first and second rolls (12A, 12B) adjacent to each other; a first axle box rotatably supporting a shaft of the first roll; a second axle box rotatably supporting a shaft of the second roll and adjacent to the first axle box; an adjustment unit configured to adjust a position of the first axle box so as to move the first roll toward the second roll or to separate the first roll from the second roll; at least one sensor unit interposed between the first axle box and the second axle box and being in contact with both of the axle boxes (14A, 14B); and a controller, wherein the sensor unit includes a distance sensor including an extension/contraction portion configured to extend and contract in one direction in which the first and second axle boxes (14A, 14B) are aligned, wherein the controller is configured to control the adjustment unit based on an extension/contraction amount of the extension/contraction portion, wherein the at least one sensor unit includes two sensor units, wherein the shaft of the first roll is rotatably supported by a first bearing incorporated in the first axle box, and wherein the shaft of the second roll is rotatably supported by a second bearing incorporated in the second axle box, and characterized in that the two sensor units are disposed in positions that are substantially symmetrical about a central point of the first and second bearings (16A, 16B) when viewed from the one direction.