mhurhangee/ep-ind-claims huggingface dataset:
A non-aqueous electrolyte solution comprising: a non-aqueous solvent and lithium salt, wherein the lithium salt contains LiPF 6 and imide salt, wherein the non-aqueous solvent contains acetonitrile, wherein a percentage of a molar quantity of the imide salt relative to a total molar quantity of the lithium salt is 50% or higher, and wherein activation energy in ion conduction, determined as described in the description, is 15 kJ/mol or lower at a temperature of -20 to 0°C. a non-aqueous solvent and lithium salt, wherein the lithium salt contains LiPF 6 and imide salt, wherein the non-aqueous solvent contains acetonitrile, wherein a percentage of a molar quantity of the imide salt relative to a total molar quantity of the lithium salt is 50% or higher, and wherein activation energy in ion conduction, determined as described in the description, is 15 kJ/mol or lower at a temperature of -20 to 0°C.
An apparatus for production of tights, comprising a line-closer machine suitable for joining a pair of tubular textile fabrics to one another, forming a semi-finished piece having a trunk part and two legs with open toes, a toe-closer machine suitable for sewing, by means of a sewing machine, the toes of the legs of the semi-finished piece, and a transfer device configured for transferring the semi-finished piece from the line-closer machine to the toe-closer machine, wherein the toe-closer machine comprises a plurality of support tubes of the semi-finished pieces, the tubes being coupled two-by-two such that each pair of tubes supports the legs of a same semi-finished piece, wherein each tube is provided with two blades arranged at sides of the tube and longitudinally movable, i.e. parallel to a longitudinal axis of the tube, between a retracted position, in which the blades are comprised in a longitudinal volume of the tube, and an advanced position, in which the blades are extracted longitudinally from the tube, the apparatus comprising a blocking and transport device structured for being operatively activatable on the toes of the legs of a semi-finished piece such as to block the toes in a predetermined configuration and transport them to the sewing machine such that the toes are closed by performing a sewing having a predetermined progression, in which said blades are in retracted position when the semi-finished piece is transferred from the line-closer machine to the toe-closer machine and during the sewing of the toes, and are in advanced position when the toes are subjected to the blocking and transport device, characterized in that the blocking and transport device comprises a plate positioned inferiorly of the tubes and mobile between a lowered position, in which it does not cooperate with the semi-finished piece, and a raised position, in which it enters into contact inferiorly with the toes of the semi-finished piece enveloped about the blades, arranged in an advanced position, of a pair of tubes, the blocking and transport device further comprising at least a pair of pressers solidly movable between a raised position, in which they do not contact the toes of the semi-finished piece, and a lowered position, in which they each block a portion of a respective toe of the semi-finished piece, pressing the portion onto the underlying plate, in which each presser of the pair of pressers can assume at least a straight configuration, in which the presser causes the blocked portion of the respective toe to take on a linear shape, and a curved configuration, in which the presser causes the blocked portion of the respective point to assume a curved shape, in which the curved shape substantially corresponds to said predetermined progression of the sewing, the blocking and transport device comprising movement means configured such as to move the pair of pressers between a first position, in which the pressers can cooperate with the pair of tubes bearing the semi-finished piece, and a second position, in which the pressers present the toes to the sewing machine.
A method of manufacturing a resistance heated sapphire single crystal ingot, the method comprising: charging polycrystalline alumina into a crucible included in a chamber; heating the crucible by a resistance heating heater to make the polycrystalline alumina as an alumina melt; contacting a seed crystal with an upper portion of the molten alumina; growing a sapphire single crystal ingot from the seed crystal; applying a magnetic field to the alumina melt in the crucible by a cusp magnet; separating the grown ingot from the molten alumina, wherein a zero gauss plane is lowered from 40mm to 105mm and a Lorentz force of a seed rotation cell (SR-cell) is increased by adjusting a ratio of currents applied to an upper coil and a lower coil of a cusp magnet in a range of 1: 0.5 to 1: 2. charging polycrystalline alumina into a crucible included in a chamber; heating the crucible by a resistance heating heater to make the polycrystalline alumina as an alumina melt; contacting a seed crystal with an upper portion of the molten alumina; growing a sapphire single crystal ingot from the seed crystal; applying a magnetic field to the alumina melt in the crucible by a cusp magnet; separating the grown ingot from the molten alumina, wherein a zero gauss plane is lowered from 40mm to 105mm and a Lorentz force of a seed rotation cell (SR-cell) is increased by adjusting a ratio of currents applied to an upper coil and a lower coil of a cusp magnet in a range of 1: 0.5 to 1: 2.
An apparatus for quantitative modulated fluorescence imaging to perform depth sectioned fluorescence and reflectance imaging of a turbid sample composed of a fluorescent turbid medium, the apparatus comprising: a source configured to expose a turbid sample to a periodic pattern of illumination, said illumination pattern having the form S = S 0 2 1 + M 0 cos 2 πf x x + Φ, where S 0, M 0, f x. and Φ are the illumination source intensity, modulation depth, spatial frequency, and spatial phase, respectively, wherein the source does not contact the sample, a camera configured to receive a data image from the sample; a signal processor to Fourier transform the data image of the sample, to spatially filter the Fourier transformed data image of the sample, and to reconstruct the filtered Fourier transformed data image of the sample, wherein the source is configured to provide the periodic pattern of illumination encoded with a fluorescent excitation wavelength to provide depth-resolved discrimination of fluorescent structures withing the turbid medium; and the apparatus further comprises means for reconstructing the non-contact three dimensional image of fluorescence at an emission frequency within the turbid sample wherein, in practise, the illumination is in the form M 0 ∗ cos(2πf x +Φ)+1, containing a DC (planar) component to allow for modulation from 0 to 1 wherein, in practice, the sample is illuminated three times at a same spatial frequency with phase offsets of 0, 120 and 240 degrees. a source configured to expose a turbid sample to a periodic pattern of illumination, said illumination pattern having the form S = S 0 2 1 + M 0 cos 2 πf x x + Φ, where S 0, M 0, f x. and Φ are the illumination source intensity, modulation depth, spatial frequency, and spatial phase, respectively, wherein the source does not contact the sample, a camera configured to receive a data image from the sample; a signal processor to Fourier transform the data image of the sample, to spatially filter the Fourier transformed data image of the sample, and to reconstruct the filtered Fourier transformed data image of the sample, wherein the source is configured to provide the periodic pattern of illumination encoded with a fluorescent excitation wavelength to provide depth-resolved discrimination of fluorescent structures withing the turbid medium; and the apparatus further comprises means for reconstructing the non-contact three dimensional image of fluorescence at an emission frequency within the turbid sample wherein, in practise, the illumination is in the form M 0 ∗ cos(2πf x +Φ)+1, containing a DC (planar) component to allow for modulation from 0 to 1 wherein, in practice, the sample is illuminated three times at a same spatial frequency with phase offsets of 0, 120 and 240 degrees.
A method of determining the risk of agent-induced toxicity in a patient population comprising: providing one or more isogenic cell populations produced from: (a) clonal expansion and differentiation of individual cells, wherein the individual cells are representative of genotypes of one or more proteins of a chaperone complex in a patient population; or (b) pluripotent stem cells, wherein the isogenic cell populations are representative of genotypes of proteins of a chaperone complex; contacting said isogenic cell populations with an agent; and detecting ex vivo activity associated with toxicity resulting from contact with the agent, thereby detecting genotypes of one or more proteins of a chaperone complex that are associated with an increased risk of agent-induced toxicity in a patient population. providing one or more isogenic cell populations produced from: (a) clonal expansion and differentiation of individual cells, wherein the individual cells are representative of genotypes of one or more proteins of a chaperone complex in a patient population; or (b) pluripotent stem cells, wherein the isogenic cell populations are representative of genotypes of proteins of a chaperone complex; (a) clonal expansion and differentiation of individual cells, wherein the individual cells are representative of genotypes of one or more proteins of a chaperone complex in a patient population; or (b) pluripotent stem cells, wherein the isogenic cell populations are representative of genotypes of proteins of a chaperone complex; contacting said isogenic cell populations with an agent; and detecting ex vivo activity associated with toxicity resulting from contact with the agent, thereby detecting genotypes of one or more proteins of a chaperone complex that are associated with an increased risk of agent-induced toxicity in a patient population.
An information reporting method in a non terrestrial network, NTN, system, comprising: reporting (310, 740), by a terminal, a first timing difference to a serving cell base station, wherein the first timing difference is a difference between a first propagation delay and a second propagation delay, the first propagation delay is a propagation delay between the terminal and a serving cell satellite, and the second propagation delay is a propagation delay between the terminal and a neighboring cell satellite, wherein the first timing difference is reported for the purpose of being use by the serving cell base station to configure a second offset value for a synchronization block measurement timing configuration, SMTC, of the neighboring cell. reporting (310, 740), by a terminal, a first timing difference to a serving cell base station, wherein the first timing difference is a difference between a first propagation delay and a second propagation delay, the first propagation delay is a propagation delay between the terminal and a serving cell satellite, and the second propagation delay is a propagation delay between the terminal and a neighboring cell satellite, wherein the first timing difference is reported for the purpose of being use by the serving cell base station to configure a second offset value for a synchronization block measurement timing configuration, SMTC, of the neighboring cell.
Device for processing sample batches, comprising - a number of magazines for receiving the sample batches, with a machine-readable code on each of the magazines, - first transport means (120, 122, 124) for transporting one of the sample batches from one magazine to an inlet of a separation device and for transporting one processed sample batch from an outlet to one of the magazines, - a processing unit for processing individual samples fed from the separation device, wherein the processing unit has a notch-milling machine (132, 134, 136, 140), wherein the notch-milling machine has a first and a second milling spindle, - a control unit for selecting the first or the second milling spindle for processing a sample, depending on the type of sample, - second transport means (146, 148, 150, 152) for transporting individual processed samples from the processing device to the outlet. - a number of magazines for receiving the sample batches, with a machine-readable code on each of the magazines, - first transport means (120, 122, 124) for transporting one of the sample batches from one magazine to an inlet of a separation device and for transporting one processed sample batch from an outlet to one of the magazines, - a processing unit for processing individual samples fed from the separation device, wherein the processing unit has a notch-milling machine (132, 134, 136, 140), wherein the notch-milling machine has a first and a second milling spindle, - a control unit for selecting the first or the second milling spindle for processing a sample, depending on the type of sample, - second transport means (146, 148, 150, 152) for transporting individual processed samples from the processing device to the outlet.
Guide vane segment for a gas turbine, in particular an aircraft gas turbine, comprising at least one radially outer shroud and one radially inner shroud which extend in each case along a circular arc and together form a ring portion, a plurality of guide vanes (16, 16a) being arranged adjacent to one another in the circumferential direction between the outer shroud and the inner shroud in the radial direction, and being integrally joined to the inner shroud and the outer shroud, in particular joined in one piece, the outer shroud comprising, in an axial longitudinal direction, an axially front end wall element and an axially rear end wall element such that the outer shroud and the two end walls (20, 22) form a trough-like profile in the longitudinal section, an associated reinforcing rib (32, 32a) being formed on the outer shroud for each guide vane (16, 16a), which rib extends between the two end walls (20, 22), at least two securing ribs (34, 36) arranged adjacent to one another being formed at the rear end wall in the case of at least one guide vane, a gap being delimited by the two securing ribs (34, 36) in the circumferential direction, characterized in that a width of the gap decreases radially from the outside to the inside such that the gap tapers radially from the outside to the inside.
A physiological monitoring method comprising the steps: deriving a first oxygen saturation value from oxygen status measured from a first peripheral tissue site on a first limb of a patient; deriving a second oxygen saturation value from oxygen status measured from a second peripheral tissue site on a second limb different from said first limb of said patient; and comparing said first oxygen saturation value to said second oxygen saturation value so as to determine a delta oxygen saturation value. deriving a first oxygen saturation value from oxygen status measured from a first peripheral tissue site on a first limb of a patient; deriving a second oxygen saturation value from oxygen status measured from a second peripheral tissue site on a second limb different from said first limb of said patient; and comparing said first oxygen saturation value to said second oxygen saturation value so as to determine a delta oxygen saturation value.
A method of identifying image areas that show a same person in different images, the method comprising - capturing (21, 24) color pixel values of a first and second image; - selecting a first and second image area in the first and second image respectively; - computing (23, 26, 31, 32) a first and second primary histogram of pixels in the first and second area respectively, the primary histograms representing sums of contributions from pixels with color values in histogram bins, each histogram bin corresponding to a combination of a range of color values and a range of heights of positions of the pixels in the first or second image area, the ranges of color values being normalized relative to a distribution of color pixel values in the first and second area respectively; - computing a first histogram intersection score of the first and second primary histograms; - computing (23, 26, 33) first and second secondary histograms of pixels in the first and second area respectively, the secondary histograms representing sums of contributions from pixels with color values in further histogram bins for ranges of color values that are at least partly independent of the distribution in the sense that boundaries between pixel value ranges associated with different bins do not vary, or at least do not vary in the same way as variation of pixel values, due to changes of lighting condition; - computing a second histogram intersection score of the first and secondary histograms; - computing a combined detection score from the first and second histogram scores. - capturing (21, 24) color pixel values of a first and second image; - selecting a first and second image area in the first and second image respectively; - computing (23, 26, 31, 32) a first and second primary histogram of pixels in the first and second area respectively, the primary histograms representing sums of contributions from pixels with color values in histogram bins, each histogram bin corresponding to a combination of a range of color values and a range of heights of positions of the pixels in the first or second image area, the ranges of color values being normalized relative to a distribution of color pixel values in the first and second area respectively; - computing a first histogram intersection score of the first and second primary histograms; - computing (23, 26, 33) first and second secondary histograms of pixels in the first and second area respectively, the secondary histograms representing sums of contributions from pixels with color values in further histogram bins for ranges of color values that are at least partly independent of the distribution in the sense that boundaries between pixel value ranges associated with different bins do not vary, or at least do not vary in the same way as variation of pixel values, due to changes of lighting condition; - computing a second histogram intersection score of the first and secondary histograms; - computing a combined detection score from the first and second histogram scores.
A NOx adsorption system, comprising: (a) a NO oxidation site having a nitronyl nitroxide site, said NO oxidation site immobilized on a first solid support; and (b) a NO 2 adsorption site immobilized on a second solid support, wherein at least one of said NO oxidation site and said NO 2 adsorption site comprises a radical, and x is 1 or 2, wherein said first solid support and said second solid support are selected from one or more of the group consisting of: inorganic crystals, inorganic glasses, inorganic oxides, zeolites, layered delaminated zeolitic materials, metals and organic polymers. (a) a NO oxidation site having a nitronyl nitroxide site, said NO oxidation site immobilized on a first solid support; and (b) a NO 2 adsorption site immobilized on a second solid support,
A method comprising: receiving input audio and target audio having a target audio characteristic; using a first neural network deployed at a radio transmitter, trained to generate key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio, generating the key parameters based on one or more of the target audio and the input audio; encoding the input audio into encoded input audio at the radio transmitter; transmitting the key parameters and the encoded input audio from the radio transmitter; receiving the key parameters and the encoded input audio at a radio receiver; decoding the encoded input audio to recover the input audio at the radio receiver; and configuring a second neural network deployed at the radio receiver, trained to be configured by the key parameters, with the key parameters to cause the second neural network to perform a signal transformation of audio representative of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic; wherein generating the key parameters is performed at the radio transmitter; and configuring the second neural network is performed at the radio receiver. receiving input audio and target audio having a target audio characteristic; using a first neural network deployed at a radio transmitter, trained to generate key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio, generating the key parameters based on one or more of the target audio and the input audio; encoding the input audio into encoded input audio at the radio transmitter; transmitting the key parameters and the encoded input audio from the radio transmitter; receiving the key parameters and the encoded input audio at a radio receiver; decoding the encoded input audio to recover the input audio at the radio receiver; and configuring a second neural network deployed at the radio receiver, trained to be configured by the key parameters, with the key parameters to cause the second neural network to perform a signal transformation of audio representative of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic; wherein generating the key parameters is performed at the radio transmitter; and configuring the second neural network is performed at the radio receiver.
A method for producing methanol from a synthesis gas, characterized in that the method comprises: producing, in a partial oxidation chamber (102, 202), the synthesis gas having a stoichiometric number of less than 1.8 by performing a partial oxidation process with a hydrocarbon stream and an oxygen stream; passing, in a water-gas shift reactor, the synthesis gas over a water-gas shift catalyst to convert at least a portion of carbon monoxide and water (H 2 O) into hydrogen (H 2) and carbon dioxide (CO 2) for obtaining a shifted synthesis gas; producing a dry, shifted synthesis gas by separating liquid condensate from the shifted synthesis gas; combining, in a recycle compressor (104, 210), the dry, shifted synthesis gas with a recycle synthesis gas comprised of unreacted synthesis gas and a hydrogen rich product to form a mixed synthesis gas stream; and converting, in a cooled methanol synthesis reactor, at least a portion of the mixed synthesis gas stream into methanol, wherein the method comprises cooling the synthesis gas to a first temperature without condensation of water vapor occurring, before passing the synthesis gas over the water-gas shift catalyst. producing, in a partial oxidation chamber (102, 202), the synthesis gas having a stoichiometric number of less than 1.8 by performing a partial oxidation process with a hydrocarbon stream and an oxygen stream; passing, in a water-gas shift reactor, the synthesis gas over a water-gas shift catalyst to convert at least a portion of carbon monoxide and water (H 2 O) into hydrogen (H 2) and carbon dioxide (CO 2) for obtaining a shifted synthesis gas; producing a dry, shifted synthesis gas by separating liquid condensate from the shifted synthesis gas; combining, in a recycle compressor (104, 210), the dry, shifted synthesis gas with a recycle synthesis gas comprised of unreacted synthesis gas and a hydrogen rich product to form a mixed synthesis gas stream; and converting, in a cooled methanol synthesis reactor, at least a portion of the mixed synthesis gas stream into methanol, wherein the method comprises cooling the synthesis gas to a first temperature without condensation of water vapor occurring, before passing the synthesis gas over the water-gas shift catalyst.