mhurhangee/patent-ind-claim-en huggingface dataset:
A service transmission method, comprising: acquiring, by a base station, a service transmission pattern provided by a sender, the service transmission pattern at least comprising one of the following information: starting time of a service transmission, ending time of the service transmission, a service transmission period or interval, a service transmission time length in each transmission period, a data packet size or Guaranteed Bit Rate, GBR, in each transmission period, and a service transmission delay requirement (S102); pre-configuring, by the base station, a transport resource according to the service transmission pattern (S104); acquiring, by the base station, user data provided by the sender, the user data containing an instruction sequence of a service and a taking-effective time point of the service at a destination end (S106); and transmitting, by the base station, the user data to the destination end through the transport resource before the taking-effective time point (S108). acquiring, by a base station, a service transmission pattern provided by a sender, the service transmission pattern at least comprising one of the following information: starting time of a service transmission, ending time of the service transmission, a service transmission period or interval, a service transmission time length in each transmission period, a data packet size or Guaranteed Bit Rate, GBR, in each transmission period, and a service transmission delay requirement (S102); pre-configuring, by the base station, a transport resource according to the service transmission pattern (S104); acquiring, by the base station, user data provided by the sender, the user data containing an instruction sequence of a service and a taking-effective time point of the service at a destination end (S106); and transmitting, by the base station, the user data to the destination end through the transport resource before the taking-effective time point (S108).
A method of flow measurement for a fluid flowing in a pipe using an ultrasonic flow meter (UFM) , comprising: measuring a magnitude or a phase of an impedance for each of a sample of ultrasonic transducers as a function of frequency to generate an impedance spectrum; selecting at least one transducer pair from said sample of ultrasonic transducers including a first ultrasonic transducer (T 1 ) and a second ultrasonic transducer (T 2 ) based on a matching of their said impedance spectrum; selecting at least two chosen frequencies to be hopped within a bandwidth of said impedance spectrum using a threshold level to select at least one peak for said phase or at least one valley for said magnitude; selecting at least one coding scheme for said chosen frequencies to provide a coded frequency sequence; transmitting an ultrasonic signal with said coded frequency sequence into said fluid; decoding a received signal that is generated in responsive to said transmitting; performing peak detection on said decoded received signal; computing a travel time from said decoded received signal, and using said travel time to determine a speed of said fluid. measuring a magnitude or a phase of an impedance for each of a sample of ultrasonic transducers as a function of frequency to generate an impedance spectrum; selecting at least one transducer pair from said sample of ultrasonic transducers including a first ultrasonic transducer (T 1 ) and a second ultrasonic transducer (T 2 ) based on a matching of their said impedance spectrum; selecting at least two chosen frequencies to be hopped within a bandwidth of said impedance spectrum using a threshold level to select at least one peak for said phase or at least one valley for said magnitude; selecting at least one coding scheme for said chosen frequencies to provide a coded frequency sequence; transmitting an ultrasonic signal with said coded frequency sequence into said fluid; decoding a received signal that is generated in responsive to said transmitting; performing peak detection on said decoded received signal; computing a travel time from said decoded received signal, and using said travel time to determine a speed of said fluid.
A channel state information, CSI, feedback method, comprising: determining , by a user equipment, a codebook of CSI at each transport layer of user equipment UE, wherein the codebook of the CSI at each transport layer of the UE is: W = W 1 × W 2 , wherein W is the codebook of the CSI at each transport layer of the UE, W 1 is a level-1 codebook, W 1 =[ b 1 b 2 ... b K ], b i in W 1 represents a codeword, K is a quantity of columns of W 1 , K is a positive integer greater than 1, W 2 is a level-2 codebook, W 2 is represented as W 2 =[ X 1 X 2 ... X K ] T , an element X i in W 2 is a weighting coefficient corresponding to b i in W 1 , and i is an integer greater than or equal to 1 and less than or equal to K; determining , by the user equipment, a quantity N i of bits occupied by a quantized value of an i th element in W 2 , wherein quantized values of at least two elements in W 2 occupy different quantities of bits; and feeding back , by the user equipment, the quantized value of the i th element to a network device based on N i . determining , by a user equipment, a codebook of CSI at each transport layer of user equipment UE, wherein the codebook of the CSI at each transport layer of the UE is: W = W 1 × W 2 , wherein W is the codebook of the CSI at each transport layer of the UE, W 1 is a level-1 codebook, W 1 =[ b 1 b 2 ... b K ], b i in W 1 represents a codeword, K is a quantity of columns of W 1 , K is a positive integer greater than 1, W 2 is a level-2 codebook, W 2 is represented as W 2 =[ X 1 X 2 ... X K ] T , an element X i in W 2 is a weighting coefficient corresponding to b i in W 1 , and i is an integer greater than or equal to 1 and less than or equal to K; determining , by the user equipment, a quantity N i of bits occupied by a quantized value of an i th element in W 2 , wherein quantized values of at least two elements in W 2 occupy different quantities of bits; and feeding back , by the user equipment, the quantized value of the i th element to a network device based on N i .
A connection material for transmitting a broadband powerline signal across an energy supply network, with a first section consisting of a multicore, in particular three-core line and a second section consisting of two separate, in particular single-core lines , wherein the first section and the second section are connected with each other, wherein a connecting element is formed at a free end of the multicore line of the first section for connecting to a broadband powerline modem, and wherein a connection element is formed at least at one free end of the lines of the second section for connecting to a connection means of an electrical system, wherein a basic body is arranged for receiving at least one group of the lines of the second section , wherein the basic body , at least section-wise, has a slot extending in longitudinal direction of the basic body , wherein a slide is arranged on the basic body , the slide being movable along the longitudinal direction of the basic body and having a passageway for at least one line , wherein at least one of the lines can be inserted into and/or removed from the basic body through the slot by means of the slide and wherein the slide has a projection extending radially inwards, with which it engages in the slot of the basic body .
An ice-maker for a home appliance, the ice-maker comprising: an upper tray having a plurality of hemispherical upper chambers defined therein; a lower tray disposed beneath the upper tray and having a plurality of hemispherical lower chambers defined therein, wherein the lower tray is pivotable, with respect to the upper tray , between an open position and a closed position, and wherein the lower tray in the closed position is configured to be in contact with the upper tray to define a plurality of ice chambers therebetween, wherein each ice chamber comprises one lower chamber and one upper chamber in contact with each other; a driver for pivoting the lower tray ; and wherein the upper tray comprises at least one rib formed along a circumference of at least one of the upper chambers , wherein the at least one rib of the upper tray is shaped to extend towards and to contact the lower tray in the closed position; and/or wherein the lower tray comprises at least one rib formed along a circumference of at least one of the lower chambers , wherein the at least one rib of the lower tray is shaped to extend towards and to contact the upper tray in the closed position; characterized in that a height of the at least one rib increases in a direction farther away from a pivoting shaft of the lower tray . an upper tray having a plurality of hemispherical upper chambers defined therein; a lower tray disposed beneath the upper tray and having a plurality of hemispherical lower chambers defined therein, wherein the lower tray is pivotable, with respect to the upper tray , between an open position and a closed position, and wherein the lower tray in the closed position is configured to be in contact with the upper tray to define a plurality of ice chambers therebetween, wherein each ice chamber comprises one lower chamber and one upper chamber in contact with each other; a driver for pivoting the lower tray ; and wherein the upper tray comprises at least one rib formed along a circumference of at least one of the upper chambers , wherein the at least one rib of the upper tray is shaped to extend towards and to contact the lower tray in the closed position; and/or wherein the lower tray comprises at least one rib formed along a circumference of at least one of the lower chambers , wherein the at least one rib of the lower tray is shaped to extend towards and to contact the upper tray in the closed position; characterized in that a height of the at least one rib increases in a direction farther away from a pivoting shaft of the lower tray .
A process for producing sulfuric acid and cement clinker using calcium sulfate which is formed as a solid by-product and separated off in phosphoric acid production in the reaction of raw phosphate with sulfuric acid to form phosphoric acid, wherein the process comprises the following steps: a) the calcium sulfate separated from the phosphoric acid is treated with an acid in order to obtain a suspension comprising purified calcium sulfate, b) the purified calcium sulfate is separated in solid form from the liquid phase of the suspension obtained, c) the purified calcium sulfate separated off is mixed with additives and reducing agents in order to obtain a raw meal mixture for cement clinker production, preferably with formation of the calcium component in the raw meal mixture for the cement clinker entirely from the purified calcium sulfate separated off, d) the raw meal mixture is burnt in order to obtain the cement clinker, with formation of sulfur dioxide as offgas, and e) the sulfur dioxide formed is supplied as raw material to sulfuric acid production in order to produce the sulfuric acid, wherein the sulfuric acid produced can be used as starting material in the phosphoric acid production and/or sent to another use, characterized in that the purified calcium sulfate obtained in step b) is fed together with additives and reducing agents at a liquid content of 9% by weight - 22% by weight to a shaping device before the shaped raw meal mixture is fed to the preheating device and/or calciner and/or furnace. a) the calcium sulfate separated from the phosphoric acid is treated with an acid in order to obtain a suspension comprising purified calcium sulfate, b) the purified calcium sulfate is separated in solid form from the liquid phase of the suspension obtained, c) the purified calcium sulfate separated off is mixed with additives and reducing agents in order to obtain a raw meal mixture for cement clinker production, preferably with formation of the calcium component in the raw meal mixture for the cement clinker entirely from the purified calcium sulfate separated off, d) the raw meal mixture is burnt in order to obtain the cement clinker, with formation of sulfur dioxide as offgas, and e) the sulfur dioxide formed is supplied as raw material to sulfuric acid production in order to produce the sulfuric acid, wherein the sulfuric acid produced can be used as starting material in the phosphoric acid production and/or sent to another use,
Packing device for the preparation and oral administration of a powder composition comprising one or more active principles (P), characterized in that said packing device has multiple storage chambers physically separated from each other, wherein: - a powder comprising one or more active principles (P) and a possible first excipient is packed in one storage chamber ; - a powder comprising one or more active principles (P) and a possible second excipient is packed in another storage chamber said packing device comprising closing welds defining a line of folding and/or tearing around a longitudinal axis (Y) and delimiting said two storage chambers physically separated from each other, said packing device having no apertures and a tear line being provided transverse to said longitudinal axis (Y) to simultaneously open said storage chambers with a single tear-off movement along said tear line . - a powder comprising one or more active principles (P) and a possible first excipient is packed in one storage chamber ; - a powder comprising one or more active principles (P) and a possible second excipient is packed in another storage chamber
A grease-retention assembly for a drive shaft assembly having a tubular shaft connected to a joint with an outer race and internal joint components , the grease-retention assembly comprising the outer race and a cap for grease retention and venting arranged in an inside diameter section of the outer race , the cap including an outer annular rim with an annular indentation , wherein the annular indentation has a semi-elliptical or semi-circular cross-section; characterized by the outer race including a radial annular rib extending from the inside diameter section, the rib partially filling the annular indentation of the outer annular rim when the cap is in an axial end position, the rib having an asymmetrical profile with a first axial portion forming a ramp and a second axial portion opposite the first axial portion forming a stop surface , the stop surface forming a larger angle with respect to an axial direction than the ramp.
A crystalline form of 3-Hydroxy-4,5-bis-benzyloxy-6-benzyloxymethyl-2-phenyl-2-oxo-2λ5- oxaphosphinane, characterized by powder x-ray diffraction reflections at about 8.65, 16.06, 16.53, 19.16 and 21.05 ± 0.2 degrees two-theta.
A tape feeder in which a magnet that applies a magnetic attraction force to a component of a component supply tape is attachable to a bottom face of a tape passage on which feeding to a component pickup position is performed with the component supply tape pulled out from a tape reel , the tape feeder characterized by a tape feeding device configured to allow a tape feeding speed for feeding the component supply tape to be changed; a detection device configured to detect whether or not the magnet is attached, and a control device configured to: - control the tape feeding speed of the tape feeding device so as to change the tape feeding speed based on a detection result of the detection device; and - set a tape feeding speed (A), when it is determined that the magnet is attached based on the detection result, to be higher than a tape feeding speed (B) when it is determined that the magnet is not attached. the tape feeder characterized by a tape feeding device configured to allow a tape feeding speed for feeding the component supply tape to be changed; a detection device configured to detect whether or not the magnet is attached, and a control device configured to: - control the tape feeding speed of the tape feeding device so as to change the tape feeding speed based on a detection result of the detection device; and - set a tape feeding speed (A), when it is determined that the magnet is attached based on the detection result, to be higher than a tape feeding speed (B) when it is determined that the magnet is not attached. - control the tape feeding speed of the tape feeding device so as to change the tape feeding speed based on a detection result of the detection device; and - set a tape feeding speed (A), when it is determined that the magnet is attached based on the detection result, to be higher than a tape feeding speed (B) when it is determined that the magnet is not attached.
A computer-implemented method for transmitting outbound data to a remote device (110-2) via a meta-transceiver , the meta-transceiver comprising two or more instances of a digital transceiver , a data stream switch , and an antenna subsystem , the method comprising: determining that the outbound data should be transmitted; selecting at least one radio frequency "RF" channel for transmitting the outbound data, wherein the at least one RF channel is selected from a set of two or more RF channels based on a set of transmission requirements for the at least one RF channel, wherein each RF channel in the set of two or more RF channels is associated with an instance of the digital transceiver configured to receive and transmit data via the RF channel; and transmitting the outbound data to the remote device via the at least one RF channel; wherein the set of transmission requirements for the at least one channel includes modulation techniques. determining that the outbound data should be transmitted; selecting at least one radio frequency "RF" channel for transmitting the outbound data, wherein the at least one RF channel is selected from a set of two or more RF channels based on a set of transmission requirements for the at least one RF channel, wherein each RF channel in the set of two or more RF channels is associated with an instance of the digital transceiver configured to receive and transmit data via the RF channel; and transmitting the outbound data to the remote device via the at least one RF channel; wherein the set of transmission requirements for the at least one channel includes modulation techniques.
A method for manufacturing a connecting material for a solid oxide fuel cell, the method comprising: producing a powder of an oxide represented by the following Formula 1; and forming a ceramic protective film comprising an oxide represented by the following Formula 1 on one surface of a conductive substrate: [Formula 1] Mn x1 Co x2 Cu y1 Y z1 O 4- δ in Formula 1, x1, x2, y1, and z1 denote a molar ratio of each component and satisfy the ranges of 0<x1≤1.5, 0<x2≤1.5, 0<y1≤0.5, and 0.1≤z1≤0.4, and δ is a value that makes the oxide neutral, wherein the forming of the ceramic protective film is a step by a plasma spray coating. producing a powder of an oxide represented by the following Formula 1; and forming a ceramic protective film comprising an oxide represented by the following Formula 1 on one surface of a conductive substrate: [Formula 1] Mn x1 Co x2 Cu y1 Y z1 O 4- δ in Formula 1, x1, x2, y1, and z1 denote a molar ratio of each component and satisfy the ranges of 0<x1≤1.5, 0<x2≤1.5, 0<y1≤0.5, and 0.1≤z1≤0.4, and δ is a value that makes the oxide neutral, wherein the forming of the ceramic protective film is a step by a plasma spray coating.
A method for determining a retardance of a layer of a sample, comprising: transmitting a first portion of a polarized light to a sample arm (S) of an optical system and a second portion of the polarized light to a reference arm (R) of the optical system; combining first return light returned from the sample arm (S) and second return light from the reference arm (R); detecting, using a detector , the combined light along a first polarization state and a second polarization state to produce polarization data, the second polarization state being different from the first polarization state; determining, using a processor coupled to the detector polarization states of light returning from upper and lower surfaces of a layer of the sample based on detecting the combined light; characterized in that the method further comprises determining, using the processor , a retardance of the layer of the sample based on the determined polarization states by determining a mirror state associated with the polarization data, wherein the mirror state comprises a point on a Poincaré sphere. transmitting a first portion of a polarized light to a sample arm (S) of an optical system and a second portion of the polarized light to a reference arm (R) of the optical system; combining first return light returned from the sample arm (S) and second return light from the reference arm (R); detecting, using a detector , the combined light along a first polarization state and a second polarization state to produce polarization data, the second polarization state being different from the first polarization state; determining, using a processor coupled to the detector polarization states of light returning from upper and lower surfaces of a layer of the sample based on detecting the combined light; characterized in that the method further comprises determining, using the processor , a retardance of the layer of the sample based on the determined polarization states by determining a mirror state associated with the polarization data, wherein the mirror state comprises a point on a Poincaré sphere. determining, using the processor , a retardance of the layer of the sample based on the determined polarization states by determining a mirror state associated with the polarization data, wherein the mirror state comprises a point on a Poincaré sphere.
A ceramic tile decoration method, comprising: preparing a digital design and loading said digital design into a digital printer; said digital printer applying ink to a ceramic tile body using a print head according to the digital design, the ink comprising a dispersion of water soluble metal-containing solids, wherein a resultant dispersion does not contain solubilized electrolytes; after application of the ink, treating the printed tile surface with a diffusion additive fluid to dissolve the metal-salt particles, wherein the dissolved metals are then carried into the tile; firing the tile in a kiln at temperatures are between 600 and 1300 °C to develop colors associated with the applied metal salts; and polishing the tile to produce a final product. preparing a digital design and loading said digital design into a digital printer; said digital printer applying ink to a ceramic tile body using a print head according to the digital design, the ink comprising a dispersion of water soluble metal-containing solids, wherein a resultant dispersion does not contain solubilized electrolytes; after application of the ink, treating the printed tile surface with a diffusion additive fluid to dissolve the metal-salt particles, wherein the dissolved metals are then carried into the tile; firing the tile in a kiln at temperatures are between 600 and 1300 °C to develop colors associated with the applied metal salts; and polishing the tile to produce a final product.