mhurhangee/ep-ind-claims huggingface dataset:
A base station antenna, comprising a transceiver, TRX, array, a first-level vector synthesis network, a second-level phase shifter array, a second-level vector synthesis network, and an antenna unit array, wherein: the TRX array comprises N TRXs, which are configured to output N vector signals whose phases are adjusted independently, wherein N is a natural number greater than or equal to 2; the first-level vector synthesis network is configured to implement vector synthesis for the N vector signals to generate M vector signals, wherein M is a natural number and M is greater than N; the second-level phase shifter array is configured to receive the M vector signals output by the first-level vector synthesis network, change phases of the M vector signals, and output M phase-shifted vector signals, wherein phase shift amounts of the M vector signals after passing through the second-level phase shifter array are an arithmetic progression; wherein the second-level vector synthesis network is configured to receive the M phase-shifted vector signals, divide the M vector signals into P vector signals, implement vector synthesis of Q vector signals of the P vector signals in order to obtain Q synthesized vector signals, and output the Q synthesized vector signals, and directly output the remaining P-Q vector signals of the P vector signals, wherein P is a natural number and P is greater than M, and Q is a natural number and less than or equal to P, and Q is greater than or equal to 4; and the antenna unit array is configured to receive and convert into electromagnetic waves the Q synthesized vector signals and the remaining P-Q vector signals. the TRX array comprises N TRXs, which are configured to output N vector signals whose phases are adjusted independently, wherein N is a natural number greater than or equal to 2; the first-level vector synthesis network is configured to implement vector synthesis for the N vector signals to generate M vector signals, wherein M is a natural number and M is greater than N; the second-level phase shifter array is configured to receive the M vector signals output by the first-level vector synthesis network, change phases of the M vector signals, and output M phase-shifted vector signals, wherein phase shift amounts of the M vector signals after passing through the second-level phase shifter array are an arithmetic progression; wherein the second-level vector synthesis network is configured to receive the M phase-shifted vector signals, divide the M vector signals into P vector signals, implement vector synthesis of Q vector signals of the P vector signals in order to obtain Q synthesized vector signals, and output the Q synthesized vector signals, and directly output the remaining P-Q vector signals of the P vector signals, wherein P is a natural number and P is greater than M, and Q is a natural number and less than or equal to P, and Q is greater than or equal to 4; and the antenna unit array is configured to receive and convert into electromagnetic waves the Q synthesized vector signals and the remaining P-Q vector signals.
A method of fabricating a stitched foam core for a hockey blade, the method comprising: forming a foam core, the core comprising a first core face, a second core face, a top core edge and a bottom core edge; wrapping the foam core with a first layer of fiber tape, the first layer of fiber tape extending continuously around the first core face, top core edge, second core face and bottom core edge of the foam core, wherein the wrapped core has a first wrapped face, a second wrapped face, a top wrapped edge and a bottom wrapped edge; after wrapping the foam core with the first layer of fiber tape, placing a non-tacky veil on the first wrapped face and the second wrapped face of the wrapped core; and stitching the wrapped foam core with a thread, the thread extending between and along the first wrapped face and the second wrapped face. forming a foam core, the core comprising a first core face, a second core face, a top core edge and a bottom core edge; wrapping the foam core with a first layer of fiber tape, the first layer of fiber tape extending continuously around the first core face, top core edge, second core face and bottom core edge of the foam core, wherein the wrapped core has a first wrapped face, a second wrapped face, a top wrapped edge and a bottom wrapped edge; after wrapping the foam core with the first layer of fiber tape, placing a non-tacky veil on the first wrapped face and the second wrapped face of the wrapped core; and stitching the wrapped foam core with a thread, the thread extending between and along the first wrapped face and the second wrapped face.
An apparatus (100, 200) comprising: a primary receiver (102, 202) having a primary mixer (110, 208) configured to down-convert a primary signal (106, 220) and a supplemental mixer (130, 224) configured to down-convert a secondary signal (108, 228), wherein the primary mixer and the supplemental mixer share a primary local oscillator, LO, signal (114, 218); a secondary receiver (104, 204) having a secondary mixer (120, 232) configured to down-convert the secondary signal; a controller (134, 248) configured to disable said secondary mixer and to enable the supplemental mixer to down-convert the secondary signal when operating in a diversity mode; and a selector (128, 252) having inputs configured to receive a supplemental baseband signal (132, 226) from the supplemental mixer and a secondary baseband signal (126, 254) from the secondary mixer, the selector configured to couple one of its inputs to a secondary baseband filter, BBF, based on a select signal (138, S) from the controller. a primary receiver (102, 202) having a primary mixer (110, 208) configured to down-convert a primary signal (106, 220) and a supplemental mixer (130, 224) configured to down-convert a secondary signal (108, 228), wherein the primary mixer and the supplemental mixer share a primary local oscillator, LO, signal (114, 218); a secondary receiver (104, 204) having a secondary mixer (120, 232) configured to down-convert the secondary signal; a controller (134, 248) configured to disable said secondary mixer and to enable the supplemental mixer to down-convert the secondary signal when operating in a diversity mode; and a selector (128, 252) having inputs configured to receive a supplemental baseband signal (132, 226) from the supplemental mixer and a secondary baseband signal (126, 254) from the secondary mixer, the selector configured to couple one of its inputs to a secondary baseband filter, BBF, based on a select signal (138, S) from the controller.
A knitting method for knitting a knitted fabric using a flat knitting machine including at least a pair of a front and a back needle bed (FB, BB) and in which one of the front and back needle beds (FB, BB) is capable of being racked in a traverse direction, from a state in which a first stitch and a second stitch are held in order toward a right side on one needle bed and a third stitch is held at a position between the first stitch and the second stitch on the other needle bed, the knitting method of the knitted fabric characterized by, a step α of obtaining a state in which a position of the third stitch is on a left side of the first stitch and continuously performing knitting of a new first stitch following the first stitch and knitting of a new third stitch following the third stitch; and a step β of obtaining a state in which a position of the stitch P 1 is on a right side of the second stitch and continuously performing knitting of a new second stitch following the second stitch and knitting of a next new third stitch following the new third stitch, the steps α and β being performed to bring the new first stitch and the new second stitch closer in a direction of approaching each other in a knitting width direction to form a projecting knitted structure raised in a projecting form in a thickness direction of the knitted fabric, wherein the step α and the step β are interchangeable, and when performing the step β first, the new third stitch and the next new third stitch in the step β are replaced with the third stitch and the new third stitch, and the third stitch and the new third stitch in the step α are replaced with the new third stitch and the next new third stitch.
Removable grip for food cooking recipients, the aforementioned removable grip comprising the body of the grip, means for connecting it to and disconnecting it from the cooking recipient, and an electric power source, characterised in that it includes: - an electromechanical device (5, 5a, 5b, 5c) powered by the power source and adapted to actuate a mechanical appliance, and - means of control (4, 12, 22, 56) to turn the electromechanical device on and off (5, 5a, 5b, 5c). - an electromechanical device (5, 5a, 5b, 5c) powered by the power source and adapted to actuate a mechanical appliance, and - means of control (4, 12, 22, 56) to turn the electromechanical device on and off (5, 5a, 5b, 5c).
A compound that binds to a thrombopoietin receptor, wherein said compound comprises (H-IEGPTLRQ(2-Nal)LAARX 10) 2 K-NH2, wherein X 10 is selected from the group consisting of sarcosine or β-alanine, wherein 2-nal is β-(2-naphthyl)alanine, and wherein said compound is covalently attached to a hydrophilic polymer.
A self-calibration method for calibrating a counter device for counting revolutions of a wheel that is locally provided with an eccentric target, the counter device including a counter unit, and first and second detector devices, each comprising a resonant inductive circuit (10.1, 10.2) provided with a coil mounted stationary facing a portion of the path of the target, the coils being spaced apart from each other in such a manner that each coil is sensitive in succession to said target, each detector device being connected to the counter unit, which is arranged to: emit a voltage pulse into the inductive circuit of said detector device periodically at an emission frequency greater than a predetermined maximum frequency of rotation of the wheel; acquire an alternating voltage signal at the output of the inductive circuit and compare it with a reference voltage (Vref1, Vref2); and detect the presence or the absence of the target as a function of the number of oscillations of the alternating signal that are greater than the reference voltage; the self-calibration method comprising a measurement step for measuring the amplitude of an alternation peak of the alternating signal and a voltage calibration step consisting in adjusting the reference voltage as a function of the amplitude (V1n, V2n) of the alternation peak; the counter unit being arranged to perform an operation of counting a revolution by emitting the voltage pulses almost simultaneously in each resonant circuit and to increment the stored number of revolutions by one after the first detector device and the second detector device have both detected the presence of the target in succession, the measurement step and the voltage calibration step being performed for one of the detection devices while the other detector device is detecting the presence of the target; the self-calibration method further comprising a time calibration step consisting in adjusting the sampling instant (tb1, tb2) at which the measurement step is performed, the time calibration step consisting in measuring a voltage prior to the alternating signal immediately before the sampling instant, in measuring a voltage posterior to the alternating signal immediately after the sampling instant, in advancing the sampling instant if the anterior voltage is greater than the voltage measured at the sampling instant and in retarding the sampling instant if the posterior voltage is greater than the voltage measured at the sampling instant.
A fecal matter containment system comprising: a flexible container constructed to receive fecal matter directly from an anus of a user and defined by a closed end and an opening formed through the container at an opposite longitudinal end of the flexible container relative to the closed end such that the flexible container and the opening define a single blind opening; an adhesive layer having a first side that is attached to the container and disposed circumferentially about the opening and a second side opposite the first side and selected to adhere to an epidermis of a user, wherein the adhesive layer is shaped to define a passage that is aligned with the opening of the container and selectively securable to the epidermis of a user proximate an anal opening of a user, characterised in that said adhesive layer is a multi-ply adhesive layer which includes a contour and physical memory that indicates a desired orientation of the flexible container during placement. a flexible container constructed to receive fecal matter directly from an anus of a user and defined by a closed end and an opening formed through the container at an opposite longitudinal end of the flexible container relative to the closed end such that the flexible container and the opening define a single blind opening; an adhesive layer having a first side that is attached to the container and disposed circumferentially about the opening and a second side opposite the first side and selected to adhere to an epidermis of a user, wherein the adhesive layer is shaped to define a passage that is aligned with the opening of the container and selectively securable to the epidermis of a user proximate an anal opening of a user, characterised in that said adhesive layer is a multi-ply adhesive layer which includes a contour and physical memory that indicates a desired orientation of the flexible container during placement.
A method of wireless communication, comprising: receiving a resource assignment on a downlink assignment channel, the resource assignment comprising a grant of time-frequency resources for receiving first user data on a downlink data channel during a first transmission time interval, TTI; receiving the first user data on the downlink data channel during the first TTI; and receiving control information on a downlink control channel during a second TTI shorter in duration than the first TTI during the receiving of the first user data, the control information being configured to modify processing of the downlink data channel. receiving a resource assignment on a downlink assignment channel, the resource assignment comprising a grant of time-frequency resources for receiving first user data on a downlink data channel during a first transmission time interval, TTI; receiving the first user data on the downlink data channel during the first TTI; and receiving control information on a downlink control channel during a second TTI shorter in duration than the first TTI during the receiving of the first user data, the control information being configured to modify processing of the downlink data channel.
A cooking oven comprising a cooking cavity having an opening on the front face obstructed by a door, said cooking cavity being surrounded by a housing, said cooking oven further comprising a ventilation device provided with at least one ventilation channel placed between the cooking cavity and the housing, said at least one ventilation channel opening out at least on the front face of said oven, the door being provided with at least one interior glazing facing the opening of the cooking cavity and an exterior glazing positioned towards the outside of said oven, said door further comprising a handle, a height of the passage cross-section of an air flow is constant over at least part of a blowing area of said at least one ventilation channel, the deflection zone is at least formed outside the cooking oven and from the front face of said oven, characterized in that the height of the passage cross-section of an air flow is also constant over an air deflection zone.
A die disc for the rotor of a rotary press comprising a plurality of die holes arranged distributed in the peripheral direction of the die disc with dies provided therein and radial holes running between each of two adjacent die holes in which an attachment device is arranged for attaching the dies, characterized in that the attachment devices each comprise two clamping elements (28, 30) arranged opposite each other in a radial hole and a tensioning apparatus, wherein the clamping elements (28, 30) can be braced against each other in a radial direction using the tensioning apparatus, wherein the clamping elements (28, 30) are pressed against the dies adjacent to the radial hole, and means are provided for securing against rotation that prevent at least one clamping element (28, 30) from rotating in the radial hole, wherein the means for securing against rotation each comprise a projection (52, 56) formed on the clamping element (28, 30) or the radial hole and a groove (50, 54) formed on the other one of clamping element (28, 30) or radial hole that runs in the direction of insertion of the clamping element (28, 30) into the radial hole, wherein the projection (52, 56) engages in the groove (50, 54) such that rotation of the clamping element (28, 30) in the radial hole is prevented.
Test needle comprising a wire made of a rhodium-based alloy, characterised in that the rhodium-based alloy comprises 0.01% by weight to 1% by weight zirconium, optionally 0.001% by weight to 1% by weight yttrium and/or 0.001% by weight to 1% by weight cerium and/or 0.01% by weight to 30% by weight platinum and/or 0.01% by weight to 30% by weight iridium, preferably 0.01% by weight to 0.5% by weight yttrium and/or 0.01% by weight to 0.5% by weight cerium and/or 5% by weight to 30% by weight platinum and/or 4% by weight to 30% by weight iridium, most preferably 5% by weight to 15% by weight platinum and/or 4% by weight to 15% by weight iridium, and in that the remainder of the rhodium-based alloy consists of rhodium, whereby the wire has a diameter ranging from 20 μm to 200 μm.
A method for removing iron from an iron-containing solution containing an iron ion, comprising: adding a lithium ion battery cathode material containing manganese to an acidic sulfuric acid solution to obtain a cathode material-containing solution, and then precipitating a manganese ion as manganese dioxide in a mixed solution obtained by mixing the iron-containing solution with the cathode material-containing solution while precipitating the iron ion contained in the iron-containing solution as a solid.
A patterning process which uses self-assembly, comprises: a step of forming a silicon-containing film by applying a silicon-containing film composition which contains a silicon-containing compound containing an organic substituent group having a hydroxyl group thereof substituted with an acid labile group or a carboxyl group thereof substituted with an acid labile group onto a substrate to be processed, which is then followed by heating this, a step of forming a photoresist film by applying a photoresist composition onto the silicon-containing film which is then followed by heating the photoresist composition, a step of pattern-exposing of the photoresist film to high-energy beam, which is then followed by heat-treatment thereof, a step of removing the photoresist film with a stripper, a step of forming a polymer film by applying a self-assembling polymer onto the silicon-containing film after removing the photoresist film, a step of self-assembling the polymer film by a heat treatment to form a microdomain structure, a step of forming a pattern by dry-etching of the polymer film having the microdomain formed, a step of transferring the pattern to the silicon-containing film by dry-etching by using the pattern formed on the polymer as a mask, and a step of transferring the pattern to the substrate to be processed by dry-etching by using the pattern transferred to the silicon-containing film as a mask. a step of forming a silicon-containing film by applying a silicon-containing film composition which contains a silicon-containing compound containing an organic substituent group having a hydroxyl group thereof substituted with an acid labile group or a carboxyl group thereof substituted with an acid labile group onto a substrate to be processed, which is then followed by heating this, a step of forming a photoresist film by applying a photoresist composition onto the silicon-containing film which is then followed by heating the photoresist composition, a step of pattern-exposing of the photoresist film to high-energy beam, which is then followed by heat-treatment thereof, a step of removing the photoresist film with a stripper, a step of forming a polymer film by applying a self-assembling polymer onto the silicon-containing film after removing the photoresist film, a step of self-assembling the polymer film by a heat treatment to form a microdomain structure, a step of forming a pattern by dry-etching of the polymer film having the microdomain formed, a step of transferring the pattern to the silicon-containing film by dry-etching by using the pattern formed on the polymer as a mask, and a step of transferring the pattern to the substrate to be processed by dry-etching by using the pattern transferred to the silicon-containing film as a mask.
A method for determining barrier crossing information using historic trajectory data (28,28'), said trajectory data being representative of the movements of a plurality of objects over a network of travel paths with respect to time, said trajectory data for an object comprising a plurality of sequential time-stamped geo-positions, and said network of travel paths comprising at least one barrier crossing which periodically impedes or restricts the free flow of objects along the network of travel paths, said trajectory data being associated with segments (18,20) of a digital map, said segments being representative of the network of travel paths, said method comprising the steps of: determining the trajectory density along at least some of the segments as a function of position (s) and time (t) from the trajectory data (28,28'), the trajectory density being indicative of the number of objects at a particular location and time; determining a crossing timetable and/or a crossing frequency for a barrier crossing, the barrier crossing having a location at which the trajectory density changes periodically from zero to substantially greater than zero, and the crossing timetable and/or crossing frequency being determined from the cyclical frequency of changes in trajectory density at the location; and associating the determined crossing timetable and/or crossing frequency with the barrier crossing in the digital map. determining the trajectory density along at least some of the segments as a function of position (s) and time (t) from the trajectory data (28,28'), the trajectory density being indicative of the number of objects at a particular location and time; determining a crossing timetable and/or a crossing frequency for a barrier crossing, the barrier crossing having a location at which the trajectory density changes periodically from zero to substantially greater than zero, and the crossing timetable and/or crossing frequency being determined from the cyclical frequency of changes in trajectory density at the location; and associating the determined crossing timetable and/or crossing frequency with the barrier crossing in the digital map.