mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a downlink signal by a base station in a wireless communication system, the method comprising: receiving (S151) first and second precoding matrix indicators, PMIs, from a user equipment ; determining (S152) a first matrix W1 from a first codebook based on the first PMI, determining a second matrix W2 from a second codebook based on the second PMI, and determining a precoding matrix W based on the first matrix W1 and the second matrix W2; precoding (S154) the downlink signal using two or more layers onto which the downlink signal mapped (S153) and the determined precoding matrix W; and transmitting (S155) the precoded downlink signal to the user equipment , wherein the precoding matrix W has a property that phases of all precoding vectors included in the precoding matrix W increase in proportion to precoding vector indexes of the all precoding vectors, and are orthonormal to each other, wherein the first codebook is configured according to: C 1 = W ̃ 1 0 0 W ̃ 1 | W ̃ 1 = w 2 ⁢ k ⁢ mod16 w 2 k + 1 mod16 w 2 k + 2 mod16 ⋯ w 2 k + 15 mod16 , k = 0 wherein Wn is configured according to: w n = 1 e j 2 ⁢ πn 16 , n = 0,1 , ⋯ , 15 wherein k is a precoding vector index of the first codebook, characterized in that the second codebook is configured according to: C 2 2 = Y 1 Y 2 a 1 Y 1 − a 2 Y 2 Y 1 Y 2 ja 1 Y 1 − ja 2 Y 2 Y 1 Y 2 ∈ e 1 e 9 e 2 e 10 e 3 e 11 e 4 e 12 e 5 e 13 e 6 e 14 e 7 e 15 e 8 e 16 wherein e n is a 4-element selection vector with all zeros except an nth element, and a1 and a2 are configured according to: a 1 = e 2 ⁢ j 2 ⁢ π 16 l mod 8 , a 2 = e 2 ⁢ j 2 ⁢ π 16 l mod 8 + 8 + jπ ; and wherein l is a precoding vector index of the second codebook. receiving (S151) first and second precoding matrix indicators, PMIs, from a user equipment ; determining (S152) a first matrix W1 from a first codebook based on the first PMI, determining a second matrix W2 from a second codebook based on the second PMI, and determining a precoding matrix W based on the first matrix W1 and the second matrix W2; precoding (S154) the downlink signal using two or more layers onto which the downlink signal mapped (S153) and the determined precoding matrix W; and transmitting (S155) the precoded downlink signal to the user equipment , wherein the precoding matrix W has a property that phases of all precoding vectors included in the precoding matrix W increase in proportion to precoding vector indexes of the all precoding vectors, and are orthonormal to each other, wherein the first codebook is configured according to: C 1 = W ̃ 1 0 0 W ̃ 1 | W ̃ 1 = w 2 ⁢ k ⁢ mod16 w 2 k + 1 mod16 w 2 k + 2 mod16 ⋯ w 2 k + 15 mod16 , k = 0 wherein Wn is configured according to: w n = 1 e j 2 ⁢ πn 16 , n = 0,1 , ⋯ , 15 wherein k is a precoding vector index of the first codebook, characterized in that the second codebook is configured according to: e n is a 4-element selection vector with all zeros except an nth element, and a1 and a2 are configured according to:
An inkjet ink set for corrugated cardboard, the inkjet ink set comprising inks of five colors with different color tones, including a cyan ink, a magenta ink, a yellow ink, a black ink, and an α ink, and the content of water is 50% by mass or more with respect to the total mass of the ink, wherein in a case in which images having a halftone dot area ratio of 100% are formed on a corrugated cardboard base material using the five color inks each separately, the hue angle h, the chroma saturation C*, and the lightness L* of the formed images in the CIE 1976 L*a*b* color space satisfy the relations of the following Formula 1 to the following Formula 3: h M < h α < h Y C ∗ M < C ∗ α < C ∗ Y L ∗ M < L ∗ α in Formula 1, h M represents the hue angle h of an image formed by the magenta ink; h α represents the hue angle h of an image formed by the α ink; and h Y represents the hue angle h of an image formed by the yellow ink, in Formula 2, C* M represents the chroma saturation C* of an image formed by the magenta ink; C* α represents the chroma saturation C* of an image formed by the α ink; and C* Y represents the chroma saturation C* of an image formed by the yellow ink, and in Formula 3, L* M represents the lightness L* of an image formed by the magenta ink; and L* α represents the lightness L* of an image formed by the α ink. in Formula 1, h M represents the hue angle h of an image formed by the magenta ink; h α represents the hue angle h of an image formed by the α ink; and h Y represents the hue angle h of an image formed by the yellow ink, in Formula 2, C* M represents the chroma saturation C* of an image formed by the magenta ink; C* α represents the chroma saturation C* of an image formed by the α ink; and C* Y represents the chroma saturation C* of an image formed by the yellow ink, and in Formula 3, L* M represents the lightness L* of an image formed by the magenta ink; and L* α represents the lightness L* of an image formed by the α ink.
A process for the preparation of coloured or black particles dispersed in a non-polar solvent comprising the following steps: a') forming a reverse emulsion comprising at least one dye, at least one polar solvent, at least one non-polar perfluorinated solvent, and at least one fluorinated surfactant, and b) removing the polar solvent or polar solvents by evaporative methods, wherein the non-polar perfluorinated solvent or solvents are not removed, wherein the coloured or black particles consist of a dye and a fluorinated surfactant, and the polar solvent is selected from water, ethanol, methanol, acetonitrile, DMSO, DMF or mixtures thereof, and the dye is selected from Acid Red 37, Acid Fuchsine, Solvent Blue 35, Solvent Black 27, Solvent Black 29, Solvent Black 34, Acid Black 52, Acid Black 107, Acid Black 132, Acid Black 172, Acid Black 194, Acid Black 211, Acid Black 222, Direct Black 19, Direct Black 22, Direct Black 51, Direct Black 80, and Direct Black 112. a') forming a reverse emulsion comprising at least one dye, at least one polar solvent, at least one non-polar perfluorinated solvent, and at least one fluorinated surfactant, and b) removing the polar solvent or polar solvents by evaporative methods, wherein the non-polar perfluorinated solvent or solvents are not removed,
A component for constructions of a masonry construction made of hollow glass blocks preferably using mortar or concrete and optionally a suitable reinforcement, whereas the component having two hollow glass blocks , which are disposed side by side and preferably are designed identically, whereas the component consists of the hollow glass blocks with an intermediate lying spacer system , which seals the intermediate space, characterised in that the spacer system consists of at least one individual spacer system , each of which consisting as a frame shaped hollow profile, which is provided in its external circumference with a gas- and water vapour-tight coating and between him and the hollow glass blocks is provided respectively one primary seal .
A method for wireless communication performed by a user equipment, UE, comprising: receiving , from a base station, configuration information indicating a first burst duration and a second burst duration for a tracking reference signal, TRS, burst pattern, the first burst duration being different from the second burst duration; detecting a first TRS burst having the first burst duration and a second TRS burst having the second burst duration based at least in part on the configuration information; and performing resource tracking based at least in part on the detected first TRS burst and the second TRS burst, characterized by : determining, from the configuration information, a plurality of burst durations and a corresponding time interval duration for each of the plurality of burst durations, the plurality of burst durations including the first and second burst durations; and monitoring for a plurality of TRS bursts, from the base station, based at least in part on the plurality of burst durations and the corresponding time interval durations, the plurality of TRS bursts including the first and second TRS bursts, wherein the plurality of TRS bursts form the TRS burst pattern and are received periodically. receiving , from a base station, configuration information indicating a first burst duration and a second burst duration for a tracking reference signal, TRS, burst pattern, the first burst duration being different from the second burst duration; detecting a first TRS burst having the first burst duration and a second TRS burst having the second burst duration based at least in part on the configuration information; and performing resource tracking based at least in part on the detected first TRS burst and the second TRS burst, characterized by : determining, from the configuration information, a plurality of burst durations and a corresponding time interval duration for each of the plurality of burst durations, the plurality of burst durations including the first and second burst durations; and monitoring for a plurality of TRS bursts, from the base station, based at least in part on the plurality of burst durations and the corresponding time interval durations, the plurality of TRS bursts including the first and second TRS bursts, wherein the plurality of TRS bursts form the TRS burst pattern and are received periodically. determining, from the configuration information, a plurality of burst durations and a corresponding time interval duration for each of the plurality of burst durations, the plurality of burst durations including the first and second burst durations; and monitoring for a plurality of TRS bursts, from the base station, based at least in part on the plurality of burst durations and the corresponding time interval durations, the plurality of TRS bursts including the first and second TRS bursts, wherein the plurality of TRS bursts form the TRS burst pattern and are received periodically.
A method to determine the serotype of an adeno-associated virus (AAV) particle comprising a) denaturing the AAV particle, b) subjecting the denatured AAV particle to liquid chromatography/mass spectrometry (LC/MS), and c) determining the masses of VP1, VP2 and VP3 of the AAV particle; wherein the specific combination of masses of VP1, VP2 and VP3 are indicative of the AAV serotype, optionally wherein the calculated masses of VP1, VP2 and VP3 are compared to the theoretical masses of VP1, VP2 and VP3 of one or more AAV serotypes. a) denaturing the AAV particle, b) subjecting the denatured AAV particle to liquid chromatography/mass spectrometry (LC/MS), and c) determining the masses of VP1, VP2 and VP3 of the AAV particle;
A method of palette index map decoding for blocks in a picture, wherein one or more symbols for a current block are coded using palette coding modes comprising a copy-index mode and a copy-above mode and wherein the copy-index mode represents first consecutive indices all having one first index value, and the copy-above mode represents second consecutive indices all having same second index values as corresponding above pixels, comprising: receiving input bitstream associated with a current block in the picture; parsing a coded syntax element corresponding to a first variable minus 1 from the input bitstream, wherein the first variable corresponds to a total number of palette indices associated with the copy-index mode in the current block; decoding the coded syntax element into a syntax element, wherein said decoding the coded syntax element comprises decoding the coded syntax element using N-th order exponential Golomb (EG) code and N is a non-negative integer; and applying palette decoding to the current block according to the syntax element; characterized in that N increases with an increase of a size of the current block, wherein N is set to 0 if the current block is an 8x8 coding unit, CU, N is set to 1 if the current block is a 16x16 CU, and N is set to 2 if the current block is a 32x32 CU. receiving input bitstream associated with a current block in the picture; parsing a coded syntax element corresponding to a first variable minus 1 from the input bitstream, wherein the first variable corresponds to a total number of palette indices associated with the copy-index mode in the current block; decoding the coded syntax element into a syntax element, wherein said decoding the coded syntax element comprises decoding the coded syntax element using N-th order exponential Golomb (EG) code and N is a non-negative integer; and applying palette decoding to the current block according to the syntax element; characterized in that N increases with an increase of a size of the current block, wherein N is set to 0 if the current block is an 8x8 coding unit, CU, N is set to 1 if the current block is a 16x16 CU, and N is set to 2 if the current block is a 32x32 CU.
A kit for producing an edible egg, comprising a first mould for producing at least one wafer biscuit half-shell and a second mould for producing at least one chocolate and/or cream half-shell , characterized in that the first mould comprises a male half-mould and a female half-mould , which delimit a moulding cavity uniformly exhibiting a decrease in thickness along a perimeter edge thereof, and the second mould comprises a male half-mould and a female half-mould , which delimit a moulding cavity uniformly exhibiting an increase in thickness along a perimeter edge thereof.
A vehicle comprising: a vehicle platform configured to carry out vehicle control in accordance with an instruction from an autonomous driving system, wherein the vehicle further comprises an autonomous driving system configured to create a driving plan; and a vehicle control interface box configured to interface between the vehicle platform and the autonomous driving system, wherein the autonomous driving system includes a power supply structure independent of a power supply structure for the vehicle platform, and characterized in that the vehicle platform includes a high-voltage battery , a first primary power supply system configured to receive supply of electric power from the high-voltage battery, and a first secondary power supply system as a redundant power supply for the vehicle platform, and the autonomous driving system includes a second primary power supply system configured to receive supply of electric power from the high-voltage battery, and a second secondary power supply system as a redundant power supply for the autonomous driving system. a vehicle platform configured to carry out vehicle control in accordance with an instruction from an autonomous driving system, wherein the vehicle further comprises an autonomous driving system configured to create a driving plan; and a vehicle control interface box configured to interface between the vehicle platform and the autonomous driving system, wherein the autonomous driving system includes a power supply structure independent of a power supply structure for the vehicle platform, and characterized in that the vehicle platform includes a high-voltage battery , a first primary power supply system configured to receive supply of electric power from the high-voltage battery, and a first secondary power supply system as a redundant power supply for the vehicle platform, and a high-voltage battery , a first primary power supply system configured to receive supply of electric power from the high-voltage battery, and a first secondary power supply system as a redundant power supply for the vehicle platform, and the autonomous driving system includes a second primary power supply system configured to receive supply of electric power from the high-voltage battery, and a second secondary power supply system as a redundant power supply for the autonomous driving system. a second primary power supply system configured to receive supply of electric power from the high-voltage battery, and a second secondary power supply system as a redundant power supply for the autonomous driving system.
A method of wireless communication for a user equipment, UE, the method comprising: determining an amount of energy with which the UE is able to transmit in a first network over a first time period, the amount of energy being based on a remaining amount of energy that is a difference between an amount of energy already generated by transmissions within the first time period subtracted from an amount of energy corresponding to a threshold amount of energy for the first time period; sending , to a base station, information indicating the determined amount of energy; and receiving , from the base station, scheduling information based on the information indicating the determined amount of energy. determining an amount of energy with which the UE is able to transmit in a first network over a first time period, the amount of energy being based on a remaining amount of energy that is a difference between an amount of energy already generated by transmissions within the first time period subtracted from an amount of energy corresponding to a threshold amount of energy for the first time period; sending , to a base station, information indicating the determined amount of energy; and receiving , from the base station, scheduling information based on the information indicating the determined amount of energy.
A magnetic apparatus for magnetically anchoring ferrous elements (P1), comprising a support structure in which thickness (S) a plurality "N" of polar units are housed, said support structure identifies a first and a second side at the opposite surfaces with the greatest extension, each of said plurality "N" of polar units comprising: - a coil having a support of predetermined profile and an electric conductive element wound on said support, - a first magnetic core with a first coercive value, generating a first magnetic flow oriented in a first magnetic direction, - a plurality of second magnetic cores each having its own coercive value, different from said first coercive value, - a first part of the plurality of second magnetic cores generates a second magnetic flow oriented in a second magnetic direction and a second part of the plurality of second magnetic cores generates a third magnetic flow oriented in a third magnetic direction, characterized by said third magnetic direction being parallel to said first magnetic direction and having a different direction with respect to said second magnetic direction; - and in that said support of said coil defines a volume (Vint), said first magnetic core and/or said second part of the plurality of second magnetic cores being arranged at least partially inside said volume (Vint) defined by said support . - a coil having a support of predetermined profile and an electric conductive element wound on said support, - a first magnetic core with a first coercive value, generating a first magnetic flow oriented in a first magnetic direction, - a plurality of second magnetic cores each having its own coercive value, different from said first coercive value, - a first part of the plurality of second magnetic cores generates a second magnetic flow oriented in a second magnetic direction and a second part of the plurality of second magnetic cores generates a third magnetic flow oriented in a third magnetic direction, said third magnetic direction being parallel to said first magnetic direction and having a different direction with respect to said second magnetic direction; - and in that said support of said coil defines a volume (Vint), said first magnetic core and/or said second part of the plurality of second magnetic cores being arranged at least partially inside said volume (Vint) defined by said support .
Apparatus for insertion into a cavity of an object , the apparatus comprising: a first tube comprising a first end , a second end , a first cavity extending between the first end and the second end , and an aperture characterised by a plug coupled to the second end of the first tube ; and an actuator configured to move the first tube relative to the object between a first position in which the plug seals the aperture from the cavity of the object , and a second position in which the aperture is exposed to the cavity of the object . a first tube comprising a first end , a second end , a first cavity extending between the first end and the second end , and an aperture characterised by a plug coupled to the second end of the first tube ; and an actuator configured to move the first tube relative to the object between a first position in which the plug seals the aperture from the cavity of the object , and a second position in which the aperture is exposed to the cavity of the object .
A method of deriving transducer measurement and an offset measurement, comprising: sampling a first output of a first amplifier (U1), where the first amplifier (U1) is set in a measurement feedback mode, to create a measurement sample; integrating the measurement sample using a second amplifier (U2), where the second amplifier (U2) is set in a switched capacitor mode, to create a measurement output voltage; holding the measurement output voltage on a first holding capacitor (C3); sampling a second output of the first amplifier (U1), where the first amplifier (U1) is set in a first buffering mode, to create an offset sample; integrating the offset sample using the second amplifier (U2) in the switched capacitor mode to create an offset output voltage; holding the offset output voltage on a second holding capacitor (C4); buffering the measurement output voltage on the first holding capacitor (C3) using the second amplifier (U2), where the second amplifier (U2) is set in a second buffering mode, to create a final buffered measurement voltage; and buffering the offset output on the second holding capacitor (C4) using the first amplifier (U1), where the first amplifier (U1) is set in a third buffering mode, to create a final buffered offset voltage. sampling a first output of a first amplifier (U1), where the first amplifier (U1) is set in a measurement feedback mode, to create a measurement sample; integrating the measurement sample using a second amplifier (U2), where the second amplifier (U2) is set in a switched capacitor mode, to create a measurement output voltage; holding the measurement output voltage on a first holding capacitor (C3); sampling a second output of the first amplifier (U1), where the first amplifier (U1) is set in a first buffering mode, to create an offset sample; integrating the offset sample using the second amplifier (U2) in the switched capacitor mode to create an offset output voltage; holding the offset output voltage on a second holding capacitor (C4); buffering the measurement output voltage on the first holding capacitor (C3) using the second amplifier (U2), where the second amplifier (U2) is set in a second buffering mode, to create a final buffered measurement voltage; and buffering the offset output on the second holding capacitor (C4) using the first amplifier (U1), where the first amplifier (U1) is set in a third buffering mode, to create a final buffered offset voltage.