mhurhangee/ep-ind-claims huggingface dataset:
An adaptive transmission method for satellite communication, wherein the method comprises: determining, by a the receive end, a redundancy version combination based on channel quality or a signal-to-noise ratio and bit error rate curve, and then determining a redundancy version index based on a correspondence between the redundancy version index and the redundancy version combination; and feeding back, by the receive end, the redundancy version index to a transmit end; characterized in that the feeding back, by the receive end, the redundancy version index to a transmit end comprises: performing, by the receive end, channel coding on the redundancy version index, to obtain a first bit sequence obtained after the channel coding; performing, by the receive end, channel coding on uplink transmission data, to obtain a second bit sequence obtained after the channel coding; multiplexing, by the receive end, the first bit sequence and the second bit sequence, to obtain a multiplexed third sequence; and interleaving and modulating, by the receive end, the multiplexed third bit sequence, mapping the third bit sequence to a transmission resource of an uplink data channel for transmission, and finally transmitting the third bit sequence to the transmit end. determining, by a the receive end, a redundancy version combination based on channel quality or a signal-to-noise ratio and bit error rate curve, and then determining a redundancy version index based on a correspondence between the redundancy version index and the redundancy version combination; and feeding back, by the receive end, the redundancy version index to a transmit end; characterized in that the feeding back, by the receive end, the redundancy version index to a transmit end comprises: performing, by the receive end, channel coding on the redundancy version index, to obtain a first bit sequence obtained after the channel coding; performing, by the receive end, channel coding on uplink transmission data, to obtain a second bit sequence obtained after the channel coding; multiplexing, by the receive end, the first bit sequence and the second bit sequence, to obtain a multiplexed third sequence; and interleaving and modulating, by the receive end, the multiplexed third bit sequence, mapping the third bit sequence to a transmission resource of an uplink data channel for transmission, and finally transmitting the third bit sequence to the transmit end. performing, by the receive end, channel coding on the redundancy version index, to obtain a first bit sequence obtained after the channel coding; performing, by the receive end, channel coding on uplink transmission data, to obtain a second bit sequence obtained after the channel coding; multiplexing, by the receive end, the first bit sequence and the second bit sequence, to obtain a multiplexed third sequence; and interleaving and modulating, by the receive end, the multiplexed third bit sequence, mapping the third bit sequence to a transmission resource of an uplink data channel for transmission, and finally transmitting the third bit sequence to the transmit end.
Tool set for disassembling a planet carrier, said planet carrier comprising: - a cage comprising a first and a second platform (21, 22) connected together by at least one internal saddle and one external saddle, said internal saddle and said external saddle being separated by a housing, a first through opening being formed in the internal saddle and a second through opening being formed in the external saddle, the first through opening and the second through opening being coaxial, - a cage carrier comprising at least one finger configured to be introduced into the housing defined between the internal saddle and the external saddle, a third through opening being formed in the finger so that when the cage is mounted on the cage carrier, the first, the second and the third through openings (25, 27, 32) are coaxial, and - a connection axle, accommodated in the first, the second and the third through openings so as to retain the cage on the cage carrier, the tool set being characterised in that it comprises: - a cylinder comprising a body and a piston, the piston being configured to apply a force to the connection axle, and - a support configured to be supported on the finger when the piston applies a force to the connection axle. - a cage comprising a first and a second platform (21, 22) connected together by at least one internal saddle and one external saddle, said internal saddle and said external saddle being separated by a housing, a first through opening being formed in the internal saddle and a second through opening being formed in the external saddle, the first through opening and the second through opening being coaxial, - a cage carrier comprising at least one finger configured to be introduced into the housing defined between the internal saddle and the external saddle, a third through opening being formed in the finger so that when the cage is mounted on the cage carrier, the first, the second and the third through openings (25, 27, 32) are coaxial, and - a connection axle, accommodated in the first, the second and the third through openings so as to retain the cage on the cage carrier, the tool set being characterised in that it comprises: - a cylinder comprising a body and a piston, the piston being configured to apply a force to the connection axle, and - a support configured to be supported on the finger when the piston applies a force to the connection axle.
Shaft centre part which is formed as a ring, can be arranged in the ground and on which the surrounding ground can be filled, wherein the shaft centre part is suitable for a sealing, plug-on and/or latchable connection with a shaft lower part and/or a shaft upper part and/or a further shaft centre part, wherein the shaft centre part has a connecting element at at least one free end, wherein the shaft centre part has reinforcing elements (11, 12), wherein the reinforcing elements (11, 12) are arranged approximately parallel in the circumferential direction, characterized in that the reinforcing elements (11, 12) are arranged in pairs, wherein the axial distance between the reinforcing elements (11, 12) of a reinforcing element pair is approximately the difference between the external radius of the reinforcing elements (11, 12) and the shaft wall of the shaft centre part and wherein the axial distance between a first pair of reinforcing elements (11, 12) and a second pair of reinforcing elements (11, 12) is at least double the difference between the external radius of the reinforcing elements (11, 12) and the shaft wall of the shaft centre part.
A method for the identification of a polynucleotide encoding an enzyme of interest in a microfluidic device, said method comprising the steps of: a) providing an emulsion of microfluidic droplets comprising a library of polynucleotides encoding one or more enzyme, wherein each droplet comprises at most a single member of the library, and expressing the library of polynucleotides to produce the one or more enzyme; b) introducing an aliquot comprising a substrate for the one or more enzyme into each droplet, wherein the presence of one or more active enzyme of interest will convert the substrate into a screenable product; c) determining positive droplets that contain the screenable product above a predetermined threshold level which, in turn, also determines the negative droplets; d) introducing an aliquot of concentrated PCR solution comprising nucleotides, a suitable DNA polymerase and a set of PCR primers which allows PCR amplification of the polynucleotides encoding the one or more enzyme of interest into each positive droplets determined in step (c); and introducing an aliquot of a solution which results in DNA denaturation as well as enzyme denaturation and cell lysis into the negative droplets determined in step (c); e) cloning or PCR amplifying the polynucleotide encoding the one or more enzyme of interest from the positive droplets; and f) identifying a polynucleotide encoding an enzyme of interest from the cloned or PCR amplified polynucleotides in step (e). a) providing an emulsion of microfluidic droplets comprising a library of polynucleotides encoding one or more enzyme, wherein each droplet comprises at most a single member of the library, and expressing the library of polynucleotides to produce the one or more enzyme; b) introducing an aliquot comprising a substrate for the one or more enzyme into each droplet, wherein the presence of one or more active enzyme of interest will convert the substrate into a screenable product; c) determining positive droplets that contain the screenable product above a predetermined threshold level which, in turn, also determines the negative droplets; d) introducing an aliquot of concentrated PCR solution comprising nucleotides, a suitable DNA polymerase and a set of PCR primers which allows PCR amplification of the polynucleotides encoding the one or more enzyme of interest into each positive droplets determined in step (c); and introducing an aliquot of a solution which results in DNA denaturation as well as enzyme denaturation and cell lysis into the negative droplets determined in step (c); e) cloning or PCR amplifying the polynucleotide encoding the one or more enzyme of interest from the positive droplets; and f) identifying a polynucleotide encoding an enzyme of interest from the cloned or PCR amplified polynucleotides in step (e).
Container system for a free-flowing composition, comprising - a receiving device, - a stand-up pouch arranged in the receiving device for receiving a free-flowing composition, having a first connection in its lower region and a second connection that is arranged above the first connection at least when the stand-up pouch is completely filled, wherein the connections are selected independently of one another from rotary connections, plug connections, clamp connections, screw connections and any combinations thereof, - a conveying device, - a discharge line from the first connection of the stand-up pouch, - a supply line to the second connection of the stand-up pouch, and - a vacuum sensor in the supply or discharge line, wherein the receiving device has a recess that corresponds to the first connection of the stand-up pouch. - a receiving device, - a stand-up pouch arranged in the receiving device for receiving a free-flowing composition, having a first connection in its lower region and a second connection that is arranged above the first connection at least when the stand-up pouch is completely filled, wherein the connections are selected independently of one another from rotary connections, plug connections, clamp connections, screw connections and any combinations thereof, - a conveying device, - a discharge line from the first connection of the stand-up pouch, - a supply line to the second connection of the stand-up pouch, and - a vacuum sensor in the supply or discharge line,
Self-supporting three-dimensional adsorptive structure, in particular adsorptive shaped bodies, wherein the adsorptive structure comprises a plurality of individual adsorber particles, wherein the individual adsorber particles are connected to a self-supporting three-dimensional adsorptive structure, in particular an adsorptive shaped body, and/or wherein the individual adsorber particles are connected to one another and/or are fixed to one another by means of at least a hydrocolloid and/or are brought into adherence with one another, wherein the hydrocolloid is selected from the group consisting of gelatin, collagen, xanthan, dextran, agar, carrageenan, pectin, gum arabic, galactomannan, as well as mixtures or combinations thereof, wherein the adsorber particles are granular-shaped and have absolute particle diameters in the range from 0.001 to 3 mm, wherein the adsorptive structure comprises the hydrocolloid and the adsorber particles in a mass-related ratio of hydrocolloid to adsorber particles "[hydrocolloid: adsorber particles]" in the range of [1: 100] to [1: 1] based on the respective dry weight; and wherein the adsorptive structure is porous and/or foam-like, and wherein the adsorptive structure comprises a pore system.
A processing module for a receiver device configured to provide for processing of a signal comprising at least one frame received by the receiver device from a transmitter device, the at least one frame comprising a plurality of repeating predetermined synchronization symbols for providing synchronization between the processing module and the transmitter device and, subsequent to the synchronization symbols, one or more start-of-frame symbols defining the end of the synchronization symbols, the processing module configured to: perform cross correlation to obtain a cross-correlation function on i) at least a part of the received frame; with ii) a predetermined modulation sequence used to modulate the one or more start-of-frame symbols and not the synchronization symbols; and determine the location of a start of the one or more start-of-frame symbols based on an increase, above a threshold increase, in the cross-correlation function from a negative cross-correlation with the synchronization symbols to a greater cross-correlation with the part of the received frame containing the start-of-frame symbols wherein the cross correlation function comprises a first region and a second region, the first region comprising a region in which the cross correlation function Is negative and indicative of cross correlation with the synchronization symbols and the second region comprising a region of increased correlation relative to the first region indicative of the end of the synchronization symbols and the start of the start-of-frame symbols, and wherein said increase above a threshold increase comprises a peak in the cross-correlation function designating the detection of the start-of-frame symbols at the end of the second region. perform cross correlation to obtain a cross-correlation function on i) at least a part of the received frame; with ii) a predetermined modulation sequence used to modulate the one or more start-of-frame symbols and not the synchronization symbols; and i) at least a part of the received frame; with ii) a predetermined modulation sequence used to modulate the one or more start-of-frame symbols and not the synchronization symbols; and determine the location of a start of the one or more start-of-frame symbols based on an increase, above a threshold increase, in the cross-correlation function from a negative cross-correlation with the synchronization symbols to a greater cross-correlation with the part of the received frame containing the start-of-frame symbols wherein the cross correlation function comprises a first region and a second region, the first region comprising a region in which the cross correlation function Is negative and indicative of cross correlation with the synchronization symbols and the second region comprising a region of increased correlation relative to the first region indicative of the end of the synchronization symbols and the start of the start-of-frame symbols, and wherein said increase above a threshold increase comprises a peak in the cross-correlation function designating the detection of the start-of-frame symbols at the end of the second region.
An inner boot made of a thermoplastic plastic removably inserted into an outer boot, the inner boot comprising: a bottom plate disposed in the outer boot; and a foot wrap portion formed at the bottom plate, wherein: the bottom plate and the foot wrap portion are integrally formed, and a material of the thermoplastic plastic contains a plurality of ethylene vinyl acetate copolymers with vinyl acetates of different content percentages as the material, wherein the inner boot being foam molded. a bottom plate disposed in the outer boot; and a foot wrap portion formed at the bottom plate, wherein: the bottom plate and the foot wrap portion are integrally formed, and a material of the thermoplastic plastic contains a plurality of ethylene vinyl acetate copolymers with vinyl acetates of different content percentages as the material, wherein the inner boot being foam molded. the bottom plate and the foot wrap portion are integrally formed, and a material of the thermoplastic plastic contains a plurality of ethylene vinyl acetate copolymers with vinyl acetates of different content percentages as the material, wherein the inner boot being foam molded.
A method of operating a user equipment, UE, comprising: generating an uplink signal according to a physical uplink control channel, PUCCH, format 2 and having n number of physical resource blocks, PRBs, that are mapped in an interlaced manner across a frequency domain on a orthogonal frequency division multiplexing, OFDM, symbol, wherein n is an integer multiple of a number of PRBs per interlace; wherein n is based on an uplink control information, UCI, payload size, and on a configured maximum code rate for said UCI, n ≤ OCB / N SC RB × SCS, OCB is a minimum occupied channel bandwidth requirement mandated by a regulation for the transmission of PUCCH over an unlicensed spectrum, SCS is a subcarrier spacing, and N SC RB is a number of sub-carriers within one resource block; and transmitting, by the UE, the uplink signal over a PUCCH that utilizes unlicensed spectrum in a new radio wireless network. generating an uplink signal according to a physical uplink control channel, PUCCH, format 2 and having n number of physical resource blocks, PRBs, that are mapped in an interlaced manner across a frequency domain on a orthogonal frequency division multiplexing, OFDM, symbol, wherein n is an integer multiple of a number of PRBs per interlace; wherein n is based on an uplink control information, UCI, payload size, and on a configured maximum code rate for said UCI, n ≤ OCB / N SC RB × SCS, OCB is a minimum occupied channel bandwidth requirement mandated by a regulation for the transmission of PUCCH over an unlicensed spectrum, SCS is a subcarrier spacing, and N SC RB is a number of sub-carriers within one resource block; and transmitting, by the UE, the uplink signal over a PUCCH that utilizes unlicensed spectrum in a new radio wireless network.
A MEMS microphone comprising: a support surface; a microphone substrate (201,202) over the support surface; an assembly of a microphone membrane and spaced back electrode supported over the substrate, wherein the substrate has an opening beneath the assembly, characterized in that, the substrate (201,202) comprises a lower region which is patterned to define a plurality of discrete spaced portions or openings at the interface between the support surface and the substrate (201,202), wherein the patterning extends only partially into the substrate. a support surface; a microphone substrate (201,202) over the support surface; an assembly of a microphone membrane and spaced back electrode supported over the substrate, wherein the substrate has an opening beneath the assembly, characterized in that, the substrate (201,202) comprises a lower region which is patterned to define a plurality of discrete spaced portions or openings at the interface between the support surface and the substrate (201,202), wherein the patterning extends only partially into the substrate.
A clamping or gripping device (10, 50, 100), having at least one bottom jaw (12, 160) that is displaceable in a guide portion (14, 190), the bottom jaw (12, 160) being motion-coupled via a mechanism to an adjusting element (18, 240) and being displaceable into a clamping position and into a release position, and the bottom jaw (12, 160) having a jaw channel (28, 360, 500), measurement means (42, 420) being provided for measuring the pressure and/or the flow speed of compressed air and an evaluation unit (44, 440) being provided in such a way that with the evaluation unit (44, 440), it can be determined on the basis of the measured values whether the bottom jaw (16, 160) is in the clamping position and/or in the release position, characterized in that the guide portion (14, 190) has a compressed air channel (30, 330) that is connectable to the compressed air supply (34, 400), such that in the clamping position or in the release position, the bottom jaw (12, 160) closes a mouth of the compressed air channel, and/or in the release position or in the clamping position, the mouth of the compressed air channel corresponds in at least in some portions with a mouth of the jaw channel (28, 360, 500), and it can be concluded from the measurement unit on the basis of the air pressure and/or the flow speed in the compressed air channel whether the bottom jaw (16, 160) is in the clamping position and/or the release position.
Competition row boat with a cockpit zone, a bow zone - between the cockpit zone and the fore body - and a stern zone - between the cockpit zone and aft -, wherein in the stern zone, the value of the breadth corresponding to any waterline of a vertical section has its maximum value essentially close to the deck and continuously decreasing in the direction of the keel, characterized in that, in the bow zone, the value of the breadth corresponding to any waterline of a vertical section has its maximum value essentially close to the keel and continuously decreases up to the deck.
A manufacturing method of a semiconductor wafer, comprising: while supplying a silane gas as a raw material gas in a trench of a semiconductor wafer having a trench structure, a step of forming a first layer on an inner surface of the trench of the semiconductor wafer at a first temperature in the range of 900 to 1150°C by a vapor growth method; a step of forming a second layer on a surface of the first layer in the trench at a second temperature in the range of 850 to 1100°C by the vapour growth method, wherein the second temperature is lower than the first temperature; and a step for forming a final layer on a surface of the second layer in the trench by the vapor growth method while reducing a temperature from the second temperature at a speed of 1 to 100°C/min so that the epitaxial layer consisting of the first layer, the second layer and the final layer is filled in the trench. while supplying a silane gas as a raw material gas in a trench of a semiconductor wafer having a trench structure, a step of forming a first layer on an inner surface of the trench of the semiconductor wafer at a first temperature in the range of 900 to 1150°C by a vapor growth method; a step of forming a second layer on a surface of the first layer in the trench at a second temperature in the range of 850 to 1100°C by the vapour growth method, wherein the second temperature is lower than the first temperature; and a step for forming a final layer on a surface of the second layer in the trench by the vapor growth method while reducing a temperature from the second temperature at a speed of 1 to 100°C/min so that the epitaxial layer consisting of the first layer, the second layer and the final layer is filled in the trench.
A method for reading e-visas (V1a, V1b, V2) using an electromagnetic field reader, with said visas each comprising a support carrying an antenna (13, 13i) connected to a microcircuit and being placed in a document (A, B, C), with the document containing sheets having a predetermined format articulated around a hinge, with the antennas being sized to a format of less than a half sheet, characterized in that, prior to the reading, the document systematically provides for an arrangement of the visas (V1a, V1b, V2a, V2b) so that a maximum of two visas are provided on one sheet without the visa antennas overlapping, with said sheet comprising two predetermined locations on either side of a transversal median, with each location being intended to receive a single visa antenna.