mhurhangee/patent-ind-claim-en huggingface dataset:
A network node for channel assignment in a Citizens Broadband Radio Service, CBRS, band, the network node comprising processing circuitry configured to: map one of a plurality of channels in the CBRS band to a wireless device , the mapping of one of the plurality of channels in the CBRS band to the wireless device including: ranking the plurality of channels in the CBRS band based on a predefined maximum power per channel and a predefined maximum transmission power of a wireless device ; determine one of a plurality of states of each of the plurality of channels based on the ranking, each state indicating whether the predefined maximum transmission power of the wireless device is allowed to be used in each of the plurality of channels; and transmit the mapping to the wireless device . map one of a plurality of channels in the CBRS band to a wireless device , the mapping of one of the plurality of channels in the CBRS band to the wireless device including: ranking the plurality of channels in the CBRS band based on a predefined maximum power per channel and a predefined maximum transmission power of a wireless device ; determine one of a plurality of states of each of the plurality of channels based on the ranking, each state indicating whether the predefined maximum transmission power of the wireless device is allowed to be used in each of the plurality of channels; and transmit the mapping to the wireless device .
A resource determining method, comprising: determining (S301) a time domain position and a resource unit type of a first time domain resource unit based on first configuration information, wherein the first configuration information comprises information used to indicate the time domain position and the resource unit type of the first time domain resource unit; determining (S302) a time domain position of a second time domain resource unit based on the time domain position of the first time domain resource unit, wherein both the time domain position of the first time domain resource unit and the time domain position of the second time domain resource unit are within a preset time period, and the time domain position of the second time domain resource unit is at a time domain position which is different from the time domain position of the first time domain resource unit and is within the preset time period; and receiving (S304) second configuration information from a network-side device, and determining a resource unit type of the second time domain resource unit based on the second configuration information, wherein the second configuration information comprises information used to indicate the resource unit type of the second time domain resource unit, wherein the resource unit type comprises at least one of the following resource unit types: a full-uplink time domain resource unit, a full-downlink time domain resource unit, a partial-uplink time domain resource unit, a partial-downlink time domain resource unit, and a combined time domain resource unit. determining (S301) a time domain position and a resource unit type of a first time domain resource unit based on first configuration information, wherein the first configuration information comprises information used to indicate the time domain position and the resource unit type of the first time domain resource unit; determining (S302) a time domain position of a second time domain resource unit based on the time domain position of the first time domain resource unit, wherein both the time domain position of the first time domain resource unit and the time domain position of the second time domain resource unit are within a preset time period, and the time domain position of the second time domain resource unit is at a time domain position which is different from the time domain position of the first time domain resource unit and is within the preset time period; and receiving (S304) second configuration information from a network-side device, and determining a resource unit type of the second time domain resource unit based on the second configuration information, wherein the second configuration information comprises information used to indicate the resource unit type of the second time domain resource unit, wherein the resource unit type comprises at least one of the following resource unit types: a full-uplink time domain resource unit, a full-downlink time domain resource unit, a partial-uplink time domain resource unit, a partial-downlink time domain resource unit, and a combined time domain resource unit.
A method for analyzing a sample containing hemoglobin A2 by capillary electrophoresis using an alkaline aqueous solution containing a cationic polymer, the method comprising the following steps 1) to 7): 1) a step of obtaining an electropherogram of the sample by capillary electrophoresis; 2) a step of specifying a detection time Tx of an X peak detected at a time earlier than an HbA2 peak; 3) a step of specifying a detection time Ta2 of an HbA2 peak; 4) a step of specifying a detection time Ty of a Y peak detected at a time later than the HbA2 peak; 5) a step of calculating a correction coefficient from a relative relationship between the detection time Tx of the X peak, the detection time Ta2 of the HbA2 peak, and the detection time Ty of the Y peak; 6) a step of calculating a ratio of an HbA2 peak area to a total peak area or a ratio of a Y peak area to the total peak area in the electropherogram; and 7) a step of correcting the ratio of the HbA2 peak area or the ratio of the Y peak area with the correction coefficient. 1) a step of obtaining an electropherogram of the sample by capillary electrophoresis; 2) a step of specifying a detection time Tx of an X peak detected at a time earlier than an HbA2 peak; 3) a step of specifying a detection time Ta2 of an HbA2 peak; 4) a step of specifying a detection time Ty of a Y peak detected at a time later than the HbA2 peak; 5) a step of calculating a correction coefficient from a relative relationship between the detection time Tx of the X peak, the detection time Ta2 of the HbA2 peak, and the detection time Ty of the Y peak; 6) a step of calculating a ratio of an HbA2 peak area to a total peak area or a ratio of a Y peak area to the total peak area in the electropherogram; and 7) a step of correcting the ratio of the HbA2 peak area or the ratio of the Y peak area with the correction coefficient.
A method for multi-user multi-ary parallel transmission, comprising the following steps: Galois Field, GF(g i ) multi-ary coding q i -ary symbols in the i-th channel of data among m-channel user data to obtain multi-ary-coded q i -ary symbols, wherein, q i = 2 p i , 1 ≤ i ≤ m , and m > 1; partitioning and mapping p i bits corresponding to the multi-ary-coded q i -ary symbols to obtain k i layer bit stream for the i-th channel of data, wherein the j-th layer bit stream contains p ij bits, and 1 ≤ j ≤ k i and ∑ j = 1 k i p ij = p i ; modulating and mapping p ij bits which are mapped to the j-th layer bit stream to constellation points, to obtain a user data block for the i-th channel of data, wherein the number of modulated constellation points is c ij = 2 p ij , and at the same time, data blocks of m users are mapped to L layers by a layer-mapping module, wherein L = ∑ i = 1 m k i , and L modulation symbols are obtained after modulation; pre-coding the L symbols on dimensions of N t × L to output N t symbols to ports of corresponding N t transmission antennas. Galois Field, GF(g i ) multi-ary coding q i -ary symbols in the i-th channel of data among m-channel user data to obtain multi-ary-coded q i -ary symbols, wherein, q i = 2 p i , 1 ≤ i ≤ m , and m > 1; partitioning and mapping p i bits corresponding to the multi-ary-coded q i -ary symbols to obtain k i layer bit stream for the i-th channel of data, wherein the j-th layer bit stream contains p ij bits, and 1 ≤ j ≤ k i and ∑ j = 1 k i p ij = p i ; modulating and mapping p ij bits which are mapped to the j-th layer bit stream to constellation points, to obtain a user data block for the i-th channel of data, wherein the number of modulated constellation points is c ij = 2 p ij , and at the same time, data blocks of m users are mapped to L layers by a layer-mapping module, wherein L = ∑ i = 1 m k i , and L modulation symbols are obtained after modulation; pre-coding the L symbols on dimensions of N t × L to output N t symbols to ports of corresponding N t transmission antennas.
A method for holding an insulator-type substrate during plasma processing of the insulator-type substrate, comprising: providing a substrate support structure having a support surface configured to receive the insulator-type substrate , the substrate support structure including an electrode , the substrate support structure including an upper conductive region formed between the electrode and the support surface, the upper conductive region formed as a ceramic material including an amount of electrically conductive dopant material defined to give the upper conductive region an RC time constant of less than or equal to about 20 seconds; positioning the insulator-type substrate on the support surface of the substrate support structure ; applying an initial clamping voltage to the electrode within the substrate support structure to accumulate enough electrical charge on the support surface to hold the insulator-type substrate; generating a plasma in exposure to the insulator-type substrate; flowing a backside cooling gas to a region between the insulator-type substrate and the substrate support structure; monitoring a leak rate of the backside cooling gas from the region between the insulator-type substrate and the substrate support structure; and upon determining that the leak rate of the backside cooling gas is less than a maximum allowable leak rate , applying a reduced clamping voltage to the electrode within the substrate support structure . providing a substrate support structure having a support surface configured to receive the insulator-type substrate , the substrate support structure including an electrode , the substrate support structure including an upper conductive region formed between the electrode and the support surface, the upper conductive region formed as a ceramic material including an amount of electrically conductive dopant material defined to give the upper conductive region an RC time constant of less than or equal to about 20 seconds; positioning the insulator-type substrate on the support surface of the substrate support structure ; applying an initial clamping voltage to the electrode within the substrate support structure to accumulate enough electrical charge on the support surface to hold the insulator-type substrate; generating a plasma in exposure to the insulator-type substrate; flowing a backside cooling gas to a region between the insulator-type substrate and the substrate support structure; monitoring a leak rate of the backside cooling gas from the region between the insulator-type substrate and the substrate support structure; and upon determining that the leak rate of the backside cooling gas is less than a maximum allowable leak rate , applying a reduced clamping voltage to the electrode within the substrate support structure .
A method for processing a substrate comprising at least 75 mol% silica, a first surface , and a second surface opposite the first surface , the method comprising: forming, using a laser beam , a damage track through the substrate from the first surface to the second surface , wherein a level of modification of the substrate along the damage track decreases in a first direction starting from the first surface toward a bulk of the substrate, and the level of modification of the substrate decreases in a second direction starting from the second surface toward the bulk of the substrate such that the damage track comprises: a first highly modified segment proximate the first surface ; a second highly modified segment proximate the second surface ; and a minimally modified segment disposed between the first highly modified segment and the second highly modified segment ; and etching, using an etching solution, the substrate to form a via comprising a first diameter at the first surface , a second diameter at the second surface , and a via waist (w) having a waist diameter between the first surface and the second surface , wherein the waist diameter is less than the first diameter and is less than the second diameter. forming, using a laser beam , a damage track through the substrate from the first surface to the second surface , wherein a level of modification of the substrate along the damage track decreases in a first direction starting from the first surface toward a bulk of the substrate, and the level of modification of the substrate decreases in a second direction starting from the second surface toward the bulk of the substrate such that the damage track comprises: a first highly modified segment proximate the first surface ; a second highly modified segment proximate the second surface ; and a minimally modified segment disposed between the first highly modified segment and the second highly modified segment ; and a first highly modified segment proximate the first surface ; a second highly modified segment proximate the second surface ; and a minimally modified segment disposed between the first highly modified segment and the second highly modified segment ; and etching, using an etching solution, the substrate to form a via comprising a first diameter at the first surface , a second diameter at the second surface , and a via waist (w) having a waist diameter between the first surface and the second surface , wherein the waist diameter is less than the first diameter and is less than the second diameter.
A system comprising: - a clock recovery unit comprising a first phase detector unit and a numerically controlled oscillator , wherein the clock recovery unit is adapted to control the numerically controlled oscillator in a closed control loop, based on a signal provided by the first phase detector unit , said first phase detector unit having a gain contributing to a total loop gain of said closed control loop, wherein said gain of said first phase detector unit may vary due to distortions in a signal subjected to clock recovery; - an estimation unit comprising a second phase detector unit , the estimation unit being configured to estimate the gain ( K D ) of the second phase detector unit based on said signal prior to clock recovery; - wherein the estimation unit and the clock recovery unit are configured to operate in parallel; and - wherein the system is adapted to adjust the loop gain of said closed control loop based on the estimated gain ( K D ) of the second phase detector unit to cancel out the influence of the variation of said gain of said first phase detector unit. - a clock recovery unit comprising a first phase detector unit and a numerically controlled oscillator , wherein the clock recovery unit is adapted to control the numerically controlled oscillator in a closed control loop, based on a signal provided by the first phase detector unit , said first phase detector unit having a gain contributing to a total loop gain of said closed control loop, wherein said gain of said first phase detector unit may vary due to distortions in a signal subjected to clock recovery; - an estimation unit comprising a second phase detector unit , the estimation unit being configured to estimate the gain ( K D ) of the second phase detector unit based on said signal prior to clock recovery; - wherein the estimation unit and the clock recovery unit are configured to operate in parallel; and - wherein the system is adapted to adjust the loop gain of said closed control loop based on the estimated gain ( K D ) of the second phase detector unit to cancel out the influence of the variation of said gain of said first phase detector unit.
A method (50; 60) of performing an over-the-air, OTA, upgrade by a server in a network of communicatively interconnected client devices (3-8), the method characterized by comprising: - said server broadcasting a network address querying message (55; 63) comprising a unique identifier of a client device (3-8), if an ongoing OTA upgrade of said client device (3-8) causes a timeout (54; 62) at said server ; and - said server resuming (41-46) said OTA upgrade of said client device after said server receiving a network address reporting message (56; 64) of said client device comprising its current network address. - said server broadcasting a network address querying message (55; 63) comprising a unique identifier of a client device (3-8), if an ongoing OTA upgrade of said client device (3-8) causes a timeout (54; 62) at said server ; and - said server resuming (41-46) said OTA upgrade of said client device after said server receiving a network address reporting message (56; 64) of said client device comprising its current network address.
Arrangement for automatically securing at least one shipment on a transport tray , comprising a shipment and a transport tray on which the shipment is placeable, and a fixing means configured for securing the shipment at the transport tray , wherein between the fixing means and the transport tray a telescopic rod and/or a rope is provided, the fixing means comprises a peripheral frame , at a lateral, horizontal profile of the arrangement two supports are arranged opposite to each other into which projections provided at the frame engage in a form-fitting manner at a retaining position of the fixing means , and the arrangement for lowering and lifting and thus modifying the height of the transport tray is configured such that by lowering the transport tray into a loading position the distance between the fixing means and the transport tray is increased such that in the loading position the shipment can be placed on the transport tray between the same and the fixing means , and that by lifting the transport tray from the loading position, the distance between the fixing means and the transport tray is reduced such that the fixing means comes to rest on the shipment for securing the same against falling off the transport tray . between the fixing means and the transport tray a telescopic rod and/or a rope is provided, the fixing means comprises a peripheral frame , at a lateral, horizontal profile of the arrangement two supports are arranged opposite to each other into which projections provided at the frame engage in a form-fitting manner at a retaining position of the fixing means , and the arrangement for lowering and lifting and thus modifying the height of the transport tray is configured such that by lowering the transport tray into a loading position the distance between the fixing means and the transport tray is increased such that in the loading position the shipment can be placed on the transport tray between the same and the fixing means , and that by lifting the transport tray from the loading position, the distance between the fixing means and the transport tray is reduced such that the fixing means comes to rest on the shipment for securing the same against falling off the transport tray .
Method for transmitting digital subscriber connection signals to an end user interface via a coaxial cable , the coaxial cable having an overall frequency range configured to transmit TV signals to the end user interface in an upper frequency range of the overall frequency range, the interface comprising a customer terminal output , the method comprising the following steps: - supplying first symmetrical (balanced) subscriber connection signals to the coaxial cable by way of a distribution point unit (DPU) with a first transformation, directed towards the customer terminal output , of the first symmetrical subscriber connection signals into asymmetrical (unbalanced) subscriber connection signals by means of a distribution point balun device , - feeding the asymmetrical subscriber connection signals into the coaxial cable in a lower frequency range of the overall frequency range, the lower frequency range being located below the upper frequency range without any overlap , - attenuating a reflection of the asymmetrical subscriber connection signals in the at least one coaxial cable by means of a filter device , and performing a second transformation, directed towards the customer terminal output , of the asymmetrical subscriber connection signals into second symmetrical subscriber connection signals by means of a balun device assigned to the interface , - supplying the second symmetrical subscriber connection signals to the customer terminal output separately, characterised in that the input impedance of the filter device is adjusted in relation to reflections from the customer terminal output . - supplying first symmetrical (balanced) subscriber connection signals to the coaxial cable by way of a distribution point unit (DPU) with a first transformation, directed towards the customer terminal output , of the first symmetrical subscriber connection signals into asymmetrical (unbalanced) subscriber connection signals by means of a distribution point balun device , - feeding the asymmetrical subscriber connection signals into the coaxial cable in a lower frequency range of the overall frequency range, the lower frequency range being located below the upper frequency range without any overlap , - attenuating a reflection of the asymmetrical subscriber connection signals in the at least one coaxial cable by means of a filter device , and - supplying the second symmetrical subscriber connection signals to the customer terminal output separately,
An assembly, in particular comprising a head assembly , for an external rear vision device to be attached to a motor vehicle, said assembly comprising a lower casing element (20, 20', 20", 910), an upper casing element , an articulation assembly (30, 30', 30") and a bezel assembly (50, 50', 50", 801) for carrying at least one rear vision element, the assembly comprising a hinge connection between the bezel assembly (50, 50', 50", 801) and a first sub assembly (10, 10") provided by at least the lower casing (20, 20', 20", 910), the articulation assembly (30, 30', 30") and attachment means (40, 40', 40"), with the articulation assembly (30") being mounted on the attachment means (40") or the attachment means being mounted on the articulation assembly , and at least one snap, latch and/or clip connection between the bezel assembly (50, 50', 50", 801) and the first sub assembly (10, 10") to provide a second sub assembly . a hinge connection between the bezel assembly (50, 50', 50", 801) and a first sub assembly (10, 10") provided by at least the lower casing (20, 20', 20", 910), the articulation assembly (30, 30', 30") and attachment means (40, 40', 40"), with the articulation assembly (30") being mounted on the attachment means (40") or the attachment means being mounted on the articulation assembly , and at least one snap, latch and/or clip connection between the bezel assembly (50, 50', 50", 801) and the first sub assembly (10, 10") to provide a second sub assembly .