mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless device for cell identifier, Cell-ID, selection, the method comprising: attempting a radio resource control, RRC, connection action ; selecting a designated Cell-ID from a plurality of Cell IDs in a system information block, SIB ; determining an indication based on the designated Cell-ID ; and transmitting the indication to a first network node as part of the RRC connection action , wherein the designated Cell-ID is a first occurring Cell-ID in the SIB. attempting a radio resource control, RRC, connection action ; selecting a designated Cell-ID from a plurality of Cell IDs in a system information block, SIB ; determining an indication based on the designated Cell-ID ; and transmitting the indication to a first network node as part of the RRC connection action , wherein the designated Cell-ID is a first occurring Cell-ID in the SIB.
An inductive power transfer, IPT, pick-up circuit for receiving power from a primary conductor at a selected operating frequency, the circuit having: a pick-up coil (L 2 ) and a compensation capacitor (C 2 ); a switch means (S 1 , S 2 , D 1 , D 2 ) controllable between an operable state and an inoperable state; a plurality of additional reactive elements (L 3 , C 3 ) whereby when the switch means is in one but not the other of the operable and inoperable states the additional reactive elements (L 3 , C 3 ) are resonant at the selected operating frequency to reduce or prevent power being supplied to an output of the pick-up circuit.
An automatic reloading and transport system for handling solid targets for a particle accelerator, comprising: a capsule configured to accommodate at least one solid target; a pneumatic tube transport system comprising at least two end stations each configured to dock and undock the capsule ; a handling mechanism to open and close the capsule , and to move the solid target from or to the open capsule; a target positioning device configured to receive the solid target from the handling mechanism and move the solid target to a position for receiving a beam of accelerated particles from the particle accelerator, wherein upon irradiation of the solid target by the beam of accelerated particles, the target positioning device is configured to move the solid target back to a position for target manipulation by the handling mechanism . a capsule configured to accommodate at least one solid target; a pneumatic tube transport system comprising at least two end stations each configured to dock and undock the capsule ; a handling mechanism to open and close the capsule , and to move the solid target from or to the open capsule; a target positioning device configured to receive the solid target from the handling mechanism and move the solid target to a position for receiving a beam of accelerated particles from the particle accelerator, wherein upon irradiation of the solid target by the beam of accelerated particles, the target positioning device is configured to move the solid target back to a position for target manipulation by the handling mechanism .
Combination of a sealing element for sealing, closing, back-filling and rendering opaque abutting edges between transoms and mullions in facade construction, and a transom and a mullion , wherein a first profile end of the transom abuts the mullion on a second, continuous profile and wherein the transom has a receptacle for the sealing element , wherein the sealing element is formed as a sealing strip or a frame, characterised in that the sealing element has spring elements which press the sealing element against the second profile, wherein the sealing element is resiliently mounted on the first profile end of the mullion and is capable of being supported on the second profile.
A biological fluid collection device , comprising: a housing having an upper portion , a side portion , and a bottom portion , the upper portion having an inlet port and a cartridge receiving cavity ; a puncturing element moveable between a pre-actuated position wherein the puncturing element is retained within a portion of the upper portion of the housing and a puncturing position wherein the puncturing element extends through the inlet port and provides fluid communication with a portion of the cartridge receiving cavity ; and a cartridge having a reservoir and an inlet , the cartridge removably receivable within the cartridge receiving cavity of the housing , the inlet of the cartridge configured to be pierced by the puncturing element , wherein the cartridge is adapted to receive a blood sample therein while the puncturing element is in the puncturing position, and wherein, with the cartridge received within the cartridge receiving cavity , the inlet port is in fluid communication with a portion of the reservoir of the cartridge . a housing having an upper portion , a side portion , and a bottom portion , the upper portion having an inlet port and a cartridge receiving cavity ; a puncturing element moveable between a pre-actuated position wherein the puncturing element is retained within a portion of the upper portion of the housing and a puncturing position wherein the puncturing element extends through the inlet port and provides fluid communication with a portion of the cartridge receiving cavity ; and a cartridge having a reservoir and an inlet , the cartridge removably receivable within the cartridge receiving cavity of the housing , the inlet of the cartridge configured to be pierced by the puncturing element , wherein the cartridge is adapted to receive a blood sample therein while the puncturing element is in the puncturing position, and wherein, with the cartridge received within the cartridge receiving cavity , the inlet port is in fluid communication with a portion of the reservoir of the cartridge .
A method of video processing, the method comprising: receiving a first plurality of codewords, S1, that represent processed color values of video data, the processed color values representing colors in a second dynamic range; applying an inverse static transfer function to the first plurality of codewords, S1, the inverse static transfer function being non-adaptive to the video data to generate processed color values, s1; inverse pre-processing the processed color values s1 after using the inverse static transfer function to generate color values s, the color values representing colors in a first dynamic range which is larger than the second dynamic range, and deriving a scaling factor and an offsetting factor from the bitstream or receiving the scaling factor and the offsetting factor as separately signaled side information; wherein inverse pre-processing the processed color values uses the scaling factor and the offset factor, the inverse pre-processing comprising performing an inverse of linear pre-processing that was applied to color values during encoding to increase the efficiency of use of the codeword space by achieving a preferred codeword distribution across the codeword space resulting from the application of a static transfer function using the scaling factor and the offsetting factor determined during encoding adaptively based on the input color values; and outputting the color values s. receiving a first plurality of codewords, S1, that represent processed color values of video data, the processed color values representing colors in a second dynamic range; applying an inverse static transfer function to the first plurality of codewords, S1, the inverse static transfer function being non-adaptive to the video data to generate processed color values, s1; inverse pre-processing the processed color values s1 after using the inverse static transfer function to generate color values s, the color values representing colors in a first dynamic range which is larger than the second dynamic range, and deriving a scaling factor and an offsetting factor from the bitstream or receiving the scaling factor and the offsetting factor as separately signaled side information; wherein inverse pre-processing the processed color values uses the scaling factor and the offset factor, the inverse pre-processing comprising performing an inverse of linear pre-processing that was applied to color values during encoding to increase the efficiency of use of the codeword space by achieving a preferred codeword distribution across the codeword space resulting from the application of a static transfer function using the scaling factor and the offsetting factor determined during encoding adaptively based on the input color values; and outputting the color values s.
Blocking agent comprising or consisting of cardanol and cardol in a weight ratio of 92:8 to 100:0 and at least one compound of general formula 1 in which R is C 17 H 33-n , where n = 0, 2 or 4, the compounds of formula 1 being present in a total amount of 0.1% to 3.0% by weight, preferably 1.0% to 3.0% by weight, more preferably 1.2% to 2.8% by weight, based on the total weight of the blocking agent and determined by the method indicated in the description, and optionally at least one compound of general formula 2 in which R is C 15 H 31-n , where n = 4 or 6, the compounds of formula 2, if present, being present in a total amount of not more than 1.8% by weight, preferably not more than 1.5% by weight, particularly preferably not more than 0.5% by weight, very particularly preferably not more than 0.1% by weight, based on the total weight of the blocking agent and determined by the method indicated in the description. cardanol and cardol in a weight ratio of 92:8 to 100:0 and at least one compound of general formula 1 in which R is C 17 H 33-n , where n = 0, 2 or 4, the compounds of formula 1 being present in a total amount of 0.1% to 3.0% by weight, preferably 1.0% to 3.0% by weight, more preferably 1.2% to 2.8% by weight, based on the total weight of the blocking agent and determined by the method indicated in the description, and optionally at least one compound of general formula 2 in which R is C 15 H 31-n , where n = 4 or 6, the compounds of formula 2, if present, being present in a total amount of not more than 1.8% by weight, preferably not more than 1.5% by weight, particularly preferably not more than 0.5% by weight, very particularly preferably not more than 0.1% by weight, based on the total weight of the blocking agent and determined by the method indicated in the description.
A method for automatically focusing multiple images at a plurality of locations of one or more objects on a substrate , the method comprising: a) obtaining, by a processor , a representative focal distance for a first location on the substrate based on a set of focal distances at known locations on the substrate, wherein the representative focal distance is estimated as a weighted average of at least two focal distances from the set of focal distances at known locations, wherein a weight for a given focal distance is calculated using a pregiven weighting function ƒ(d, n, s) based on a distance d of the corresponding location from the first location, on a parameter n representing a neighborhood to control a horizontal scale of the pregiven weighting function f(d, n, s) and another parameter s representing sharpness to control a shape of a curve corresponding to the pregiven weighting function, wherein the pregiven weighting function f(d, n, s) is calculated as: f(d, n, s) = (d 2 + n 2 ) -(s/2) ; b) acquiring , by an image acquisition device, a set of at least two images of the first location, wherein the images are each acquired using a different focal distance at an offset from the representative focal distance; c) estimating , by the processor, an ideal focal distance corresponding to the first location based on comparing a quality of focus for each of the images; and d) storing the estimated ideal focal distance and the first location in the set of focal distances at known locations. a) obtaining, by a processor , a representative focal distance for a first location on the substrate based on a set of focal distances at known locations on the substrate, wherein the representative focal distance is estimated as a weighted average of at least two focal distances from the set of focal distances at known locations, wherein a weight for a given focal distance is calculated using a pregiven weighting function ƒ(d, n, s) based on a distance d of the corresponding location from the first location, on a parameter n representing a neighborhood to control a horizontal scale of the pregiven weighting function f(d, n, s) and another parameter s representing sharpness to control a shape of a curve corresponding to the pregiven weighting function, wherein the pregiven weighting function f(d, n, s) is calculated as: f(d, n, s) = (d 2 + n 2 ) -(s/2) ; b) acquiring , by an image acquisition device, a set of at least two images of the first location, wherein the images are each acquired using a different focal distance at an offset from the representative focal distance; c) estimating , by the processor, an ideal focal distance corresponding to the first location based on comparing a quality of focus for each of the images; and d) storing the estimated ideal focal distance and the first location in the set of focal distances at known locations.
A fiber concentration profile measuring apparatus comprising a plurality of conductor bodies , configured to be coupled to a primary AC power source comprising an impedance measuring unit , the respective conductor body exhibits a first electric contact surface configured to transfer a primary electric current (PEC) from the primary AC power source to a second electric contact surface via a fiber pad material being pulped, characterized in that - each conductor body is coupled in series with a respective electronic switching device (49', 49", 49′′′, 49"", 49ʺ′′′), each of which is configured to switch between on- and off-state for feeding or not feeding the primary electric current (PEC) to the associated conductor body ; and - a secondary power source , configured to generate a secondary electric current injected with a range of frequencies, is coupled to each electronic switching device (49', 49", 49'", 49"", 49ʺ′′′) via a respective series resonance circuit (SRC', SRC", SRC′′′, SRC"", SRCʺ′′′), each being individually adapted to give free passage for the secondary electric current at a certain frequency providing said on-state. - each conductor body is coupled in series with a respective electronic switching device (49', 49", 49′′′, 49"", 49ʺ′′′), each of which is configured to switch between on- and off-state for feeding or not feeding the primary electric current (PEC) to the associated conductor body ; and - a secondary power source , configured to generate a secondary electric current injected with a range of frequencies, is coupled to each electronic switching device (49', 49", 49'", 49"", 49ʺ′′′) via a respective series resonance circuit (SRC', SRC", SRC′′′, SRC"", SRCʺ′′′), each being individually adapted to give free passage for the secondary electric current at a certain frequency providing said on-state.
An optical wireless communication, OWC, luminaire driver apparatus for use with one or more light emitting diodes or other light sources, comprising: voltage control circuitry configured to regulate a supply voltage to one or more light emitting diodes or other light sources; driving circuitry configured to provide a drive current to the one or more light emitting diodes or other light sources wherein the driving circuitry is configured to modulate the drive current based on a drive signal such that the one or more light emitting diodes or other light sources produces an optical wireless communication signal representing data, characterised in that at least one of the driving circuitry and the voltage control circuitry are operable to adapt to a plurality of different types of light emitting diode or other light sources, wherein the drive signal is modulated and contains a DC component and an AC component, wherein the DC component sets an operating point of the light emitting diode(s) or other light source, and the AC component corresponds to the modulation of the drive current provided to the light emitting diodes or other light source. voltage control circuitry configured to regulate a supply voltage to one or more light emitting diodes or other light sources; driving circuitry configured to provide a drive current to the one or more light emitting diodes or other light sources wherein the driving circuitry is configured to modulate the drive current based on a drive signal such that the one or more light emitting diodes or other light sources produces an optical wireless communication signal representing data, characterised in that at least one of the driving circuitry and the voltage control circuitry are operable to adapt to a plurality of different types of light emitting diode or other light sources, wherein the drive signal is modulated and contains a DC component and an AC component, wherein the DC component sets an operating point of the light emitting diode(s) or other light source, and the AC component corresponds to the modulation of the drive current provided to the light emitting diodes or other light source.
A recombinant SARS-CoV-2 RBD single chain protein comprising three RBD domains capable of generating broad-spectrum cross neutralization activity, characterized in that the protein is composed of subunits of three SARS-CoV-2 protein RBD regions, and the amino acid sequence of the protein is amino acid sequence shown in SEQ ID NO.4.
A pressure sensor comprising: a membrane generating a deformation in response to pressure; a pressure detection circuit including at least four resistors (R1-R4) arranged on the membrane and detecting the deformation of the membrane with a bridge circuit formed by the resistors; the pressure sensor characterized that it comprises: a piezoelectric body disposed on the membrane and detecting the deformation of the membrane; and a changeover unit switching electric power supply to the pressure detection circuit based on a detection signal from the piezoelectric body. a membrane generating a deformation in response to pressure; a pressure detection circuit including at least four resistors (R1-R4) arranged on the membrane and detecting the deformation of the membrane with a bridge circuit formed by the resistors; the pressure sensor characterized that it comprises: a piezoelectric body disposed on the membrane and detecting the deformation of the membrane; and a changeover unit switching electric power supply to the pressure detection circuit based on a detection signal from the piezoelectric body.
A foamable aerosol composition, wherein the composition comprises a stock solution comprising a cellulose nanofiber and a propellant; the content ratio of the cellulose nanofiber is from 0.001 to 10% by mass relative to the total amount of the stock solution, the cellulose nanofiber comprises a chemically modified cellulose nanofiber, the chemically modified cellulose nanofiber is one or more kinds selected from an oxidized cellulose nanofiber and an etherified cellulose nanofiber, the etherified cellulose nanofiber is a carboxymethylated cellulose nanofiber, the content ratio of the propellant is 1 to 60% by mass relative to the composition, and the content ratio of the stock solution is 40 to 99% by mass relative to the composition. the composition comprises a stock solution comprising a cellulose nanofiber and a propellant; the content ratio of the cellulose nanofiber is from 0.001 to 10% by mass relative to the total amount of the stock solution, the cellulose nanofiber comprises a chemically modified cellulose nanofiber, the chemically modified cellulose nanofiber is one or more kinds selected from an oxidized cellulose nanofiber and an etherified cellulose nanofiber, the etherified cellulose nanofiber is a carboxymethylated cellulose nanofiber, the content ratio of the propellant is 1 to 60% by mass relative to the composition, and the content ratio of the stock solution is 40 to 99% by mass relative to the composition.
Suspension stop of a motor vehicle, said suspension stop comprising an upper cup and a lower cup which are mounted in relative rotation about an axis (A), said cups being arranged to form between them at least one annular chamber which is delimited laterally by two walls from one of said cups respectively, said chamber having an external section formed between a bearing surface of one wall respectively, said suspension stop being characterised in that it comprises an external sealing element which has two complementary bearing surfaces , said external sealing element being mounted to be mobile in the external section between a stable position in which said complementary bearing surfaces are arranged at a distance from the bearing surfaces of said external section and a stressed position by bearing on said external sealing element in which said complementary bearing surfaces are forced against respectively one of said bearing surfaces to ensure the sealing of the external section at the interface thereof.
Sectional blade for a wind turbine, comprising at least a first blade section and a second blade section , which blade sections (2;3) extend in opposite direction from a blade joint , wherein each blade section (2;3) comprises a cavity in longitudinal direction, wherein the first blade section and second blade section are structurally connectable by at least one connecting beam or spar bridge which beam extends in the cavities of both blade sections (2;3), wherein each blade section (2;3) is at its first end near the blade joint provided with a first end rib and each blade section (2;3) is at its second end provided with a second end rib , wherein the first and second end rib (5;6) each have a shape which cooperates with the blade section, the connecting beam is hollow at both ends and wherein the second end rib is arranged for receiving the hollow end (7-1)of the connecting beam for structurally connecting the connecting beam to the blade section, characterized in that a rim (6-1) is provided on the second end rib , which rim (6-1) is arranged for durable attachment of the inner side of the hollow end (7-1) of the connecting beam and the first end rib is provided with an opening (5-1) for partial passing of the connecting beam , wherein the rim of the opening (5-1) and the connecting beam are arranged for durable attachment to each other.
A method comprising: heating a first electrically conductive layer that is to be electrically contacted, and that is arranged on a first element ; and pressing a first end of a bonding wire on the first electrically conductive layer by exerting pressure to the first end of the bonding wire , and further by exposing the first end of the bonding wire to ultrasonic energy, thereby deforming the first end of the bonding wire and creating a permanent substance-to-substance bond between the first end of the bonding wire and the first electrically conductive layer ; wherein the bonding wire either comprises a rounded cross section with a diameter (d1) of at least 125μm or a rectangular cross section with a first width (w1) of at least 500μm and a first height (h1) of at least 50μm, and the first layer has a thickness (d2, d3) of at least 50μm. heating a first electrically conductive layer that is to be electrically contacted, and that is arranged on a first element ; and pressing a first end of a bonding wire on the first electrically conductive layer by exerting pressure to the first end of the bonding wire , and further by exposing the first end of the bonding wire to ultrasonic energy, thereby deforming the first end of the bonding wire and creating a permanent substance-to-substance bond between the first end of the bonding wire and the first electrically conductive layer ; wherein the bonding wire either comprises a rounded cross section with a diameter (d1) of at least 125μm or a rectangular cross section with a first width (w1) of at least 500μm and a first height (h1) of at least 50μm, and the first layer has a thickness (d2, d3) of at least 50μm.