mhurhangee/ep-ind-claims huggingface dataset:
A method for making an optical fiber preform comprising the steps of: depositing a plurality of rods (115,115A,115B) into a mold cavity of an apparatus having an inner wall; depositing particulate glass material in the mold cavity between the rods and the inner wall; and applying pressure against the particulate glass material to pressurize the particulate glass material against the plurality of rods (115,115A,115B), to form a soot compact; characterised in that the pressure is 172 kPa to 1720kPa (25psig to 250psig). depositing a plurality of rods (115,115A,115B) into a mold cavity of an apparatus having an inner wall; depositing particulate glass material in the mold cavity between the rods and the inner wall; and applying pressure against the particulate glass material to pressurize the particulate glass material against the plurality of rods (115,115A,115B), to form a soot compact; characterised in that the pressure is 172 kPa to 1720kPa (25psig to 250psig).
A compound selected from compounds of the following formula, and pharmaceutically acceptable salts, hydrates, and solvates thereof: wherein: one of X 1, X 2, and X 3 is independently O or S; each of the other two of X 1, X 2, and X 3 is N; Y 1 is independently O or S; Y 2 is independently CH, CR Y or N; -R Y is saturated linear or branched C 1-3 alkyl; -R Q1 is independently -R Q1A, -R Q1B, or -R Q1C; -R Q1A is saturated linear or branched C 1-3 alkyl; -R Q1B is -F, -Cl, -Br, or -I; -R Q1C is -CF 3; -R Q2 is independently -R Q2A, -R Q2B, or -R Q2C; -R Q2A is saturated linear or branched C 1-3 alkyl; -R Q2B is independently -F, -Cl, -Br, or -I; -R Q2C is -CF 3; -R Q3 is independently -H or -R Q3X; -R Q3X is independently -R Q3A, -R Q3B, -R Q3C, or -R Q3D; -R Q3A is saturated linear or branched C 1-3 alkyl; -R Q3B is saturated linear or branched C 1-3 alkoxy; -R Q3C is independently -F, -Cl, -Br, or -I; -R Q3D is -CF 3; -R Q4 is independently -H or -R Q4X; -R Q4X is independently -R Q4A, -R Q4B, -R Q4C, or -R Q4D; -R Q4A is saturated linear or branched C 1-3 alkyl; -R Q4B is saturated linear or branched C 1-3 alkoxy; -R Q4C is independently -F, -Cl, -Br, or -I; -R Q4D is -CF 3; one of -R P1 and -R P2 is -H or -R P; the other of -R P1 and -R P2 is -H; -R P is independently -R PA, -R PB, -R PC, or -R PD; -R PA is saturated linear or branched C 1-3 alkyl; -R PB is independently -F, -Cl, -Br, or -I; -R PC is -CF 3; -R PD is independently -NH 2 or -NHR PDD; -R PDD is saturated linear or branched C 1-3 alkyl; -R A is independently -H or -R AA; and -R AA is independently saturated linear or branched C 1-4 alkyl, phenyl, or benzyl. one of X 1, X 2, and X 3 is independently O or S; each of the other two of X 1, X 2, and X 3 is N; Y 1 is independently O or S; Y 2 is independently CH, CR Y or N; -R Y is saturated linear or branched C 1-3 alkyl; -R Q1 is independently -R Q1A, -R Q1B, or -R Q1C; -R Q1A is saturated linear or branched C 1-3 alkyl; -R Q1B is -F, -Cl, -Br, or -I; -R Q1C is -CF 3; -R Q2 is independently -R Q2A, -R Q2B, or -R Q2C; -R Q2A is saturated linear or branched C 1-3 alkyl; -R Q2B is independently -F, -Cl, -Br, or -I; -R Q2C is -CF 3; -R Q3 is independently -H or -R Q3X; -R Q3X is independently -R Q3A, -R Q3B, -R Q3C, or -R Q3D; -R Q3A is saturated linear or branched C 1-3 alkyl; -R Q3B is saturated linear or branched C 1-3 alkoxy; -R Q3C is independently -F, -Cl, -Br, or -I; -R Q3D is -CF 3; -R Q4 is independently -H or -R Q4X; -R Q4X is independently -R Q4A, -R Q4B, -R Q4C, or -R Q4D; -R Q4A is saturated linear or branched C 1-3 alkyl; -R Q4B is saturated linear or branched C 1-3 alkoxy; -R Q4C is independently -F, -Cl, -Br, or -I; -R Q4D is -CF 3; one of -R P1 and -R P2 is -H or -R P; the other of -R P1 and -R P2 is -H; -R P is independently -R PA, -R PB, -R PC, or -R PD; -R PA is saturated linear or branched C 1-3 alkyl; -R PB is independently -F, -Cl, -Br, or -I; -R PC is -CF 3; -R PD is independently -NH 2 or -NHR PDD; -R PDD is saturated linear or branched C 1-3 alkyl; -R A is independently -H or -R AA; and -R AA is independently saturated linear or branched C 1-4 alkyl, phenyl, or benzyl.
An underwater treadmill system having a submergible treadmill portion and a non-submergible treadmill portion, wherein the submergible treadmill portion includes: a treadmill belt, the treadmill belt including a continuous belt extending around a drive roller at a first end and an idler roller at a second end, a treadmill drive motor, a housing connected to the submergible treadmill portion, characterized in that the submergible treadmill portion further includes: wheels or rollers attached to the submergible treadmill portion, the submergible treadmill portion movable from a first location to a second location, a jet is positioned within the housing, the jet emanating a flow of fluid comprising water and air as a stream, the air injected into the stream being selectively controllable from the housing, a control modulating the amount of water through the jet, the control being a proportional valve selectively controllable from the housing, and an adjusting device having an opening used to adjust the flow of fluid through the jet, the adjusting device being pivotable, selectively directing the stream through 360°, toward a surface of water, in a direction toward a surface of the treadmill belt or included angles therebetween; and wherein the non-submergible portion of the system includes a tank drive, the tank drive further including a hydraulic pump, an electric motor, wherein the electric motor operates the hydraulic pump, a hydraulic fluid reservoir, and hydraulic lines connecting the submergible portion to the hydraulic pump, the hydraulic pump driving the treadmill drive motor of the submergible treadmill portion. a treadmill belt, the treadmill belt including a continuous belt extending around a drive roller at a first end and an idler roller at a second end, a treadmill drive motor, a housing connected to the submergible treadmill portion, wheels or rollers attached to the submergible treadmill portion, the submergible treadmill portion movable from a first location to a second location, a jet is positioned within the housing, the jet emanating a flow of fluid comprising water and air as a stream, the air injected into the stream being selectively controllable from the housing, a control modulating the amount of water through the jet, the control being a proportional valve selectively controllable from the housing, and
A method performed by a device manager for controlling program components in a network device, wherein said controlling program components control the operation of said network device, and wherein the network device is used for handling data traffic in a communication network, the method comprising: - identifying a policy out of a set of predefined policies having priorities so that a policy with a first priority overrides a conflicting policy with a second priority lower than the first priority, the identified policy comprising rules which determine how the network device should operate in the communication network, - identifying program components for the network device required to fulfil the identified and prioritized policy, - determining existing program components present in the network device, and - pushing to the network device one or more of the required program components absent in said existing program components in the network device. - identifying a policy out of a set of predefined policies having priorities so that a policy with a first priority overrides a conflicting policy with a second priority lower than the first priority, the identified policy comprising rules which determine how the network device should operate in the communication network, - identifying program components for the network device required to fulfil the identified and prioritized policy, - determining existing program components present in the network device, and - pushing to the network device one or more of the required program components absent in said existing program components in the network device.
A composition comprising (a) clarified limulus amebocyte lysate and (b) buffer, wherein the composition comprises 30% (v/v) to 60% (v/v) clarified LAL, wherein the clarified LAL is LAL that has been centrifuged at 5000 × gravity to 7000 × gravity for 3 minutes to 10 minutes, and wherein the clarified LAL comprises less than 5% (wt/wt) of coagulogen relative to total protein in the LAL as measured by SDS-PAGE and protein stain.
A module for use in a wireless communication apparatus for communicating with a terminal, comprising: a first printed circuit board, PCB (100, 200) configured by stacking a plurality of substrates; a plurality of antennas formed on a first side of the first PCB (100, 200); a plurality of antenna modules for the plurality of antennas, each antenna module of the plurality of antenna modules comprises: a radio frequency integrated circuit, RFIC, chip; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB (100, 200), wherein the second PCB has a smaller surface area than the first PCB (100, 200) and second PCBs of the plurality of antenna modules are spaced apart from each other, wherein a first side of the second PCB is coupled to a second side of the first PCB (100, 200) opposite to the first side of the first PCB (100, 200) via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip, and wherein the module is configured to operate in an array antenna scheme. a first printed circuit board, PCB (100, 200) configured by stacking a plurality of substrates; a plurality of antennas formed on a first side of the first PCB (100, 200); a plurality of antenna modules for the plurality of antennas, each antenna module of the plurality of antenna modules comprises: a radio frequency integrated circuit, RFIC, chip; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB (100, 200), a radio frequency integrated circuit, RFIC, chip; and a second PCB configured by stacking a plurality of substrates and configured to electrically connect the RFIC chip to the first PCB (100, 200), wherein the second PCB has a smaller surface area than the first PCB (100, 200) and second PCBs of the plurality of antenna modules are spaced apart from each other, wherein a first side of the second PCB is coupled to a second side of the first PCB (100, 200) opposite to the first side of the first PCB (100, 200) via a grid array, wherein a second side opposite to the first side of the second PCB is coupled with the RFIC chip, and wherein the module is configured to operate in an array antenna scheme.
A method for operating a primary station communicating in a mobile network with at least one secondary station (110a-d), the method comprising the step of the primary station signalling to the at least one secondary station (110a-d) an interference status report, said interference status report comprising a spatial indication being representative of a spatial characteristic of the interference, wherein said interference status report comprises a first part indicating a level of spatially uniform interference and a second part indicating the number of localized sources which are to be taken into account along the spatially uniform interference source.
An ink set comprising a plurality of aqueous inks each ink comprising a dye as a coloring material, wherein: the ink set has at least a first aqueous ink comprising a dye as a coloring material; a difference between dynamic surface tension of the first aqueous ink at a lifetime of 50 milliseconds and dynamic surface tension of the first aqueous ink at a lifetime of 500 milliseconds is 7 mN/m or more; and between the first aqueous ink and at least one type of aqueous ink except the first aqueous ink included in the ink set, dynamic surface tension γ a (mN/m) of an ink A having relatively higher lightness at a lifetime of 500 milliseconds and dynamic surface tension γ b (mN/m) of an ink B having relatively lower lightness at a lifetime of 500 milliseconds satisfy a relationship of -5 ≤ (γ a - γ b) ≤ 3. the ink set has at least a first aqueous ink comprising a dye as a coloring material; a difference between dynamic surface tension of the first aqueous ink at a lifetime of 50 milliseconds and dynamic surface tension of the first aqueous ink at a lifetime of 500 milliseconds is 7 mN/m or more; and between the first aqueous ink and at least one type of aqueous ink except the first aqueous ink included in the ink set, dynamic surface tension γ a (mN/m) of an ink A having relatively higher lightness at a lifetime of 500 milliseconds and dynamic surface tension γ b (mN/m) of an ink B having relatively lower lightness at a lifetime of 500 milliseconds satisfy a relationship of -5 ≤ (γ a - γ b) ≤ 3.
A method comprising: receiving a modulated signal having a variable phase component wherein the variable phase component includes phase variations in a first phase range; generating a phase-compressed signal having a compressed variable phase component by processing the received modulated signal with a second-harmonic injection locking oscillator, wherein the compressed variable phase component includes phase variations in a compressed phase range being substantially one half the first phase range; generating a delayed phase-compressed signal having a delayed compressed variable phase component that is delayed relative to the compressed variable phase component; combining the phase-compressed signal and the delayed phase-compressed signal to obtain an estimated derivative of the variable phase component; generating an estimated variable phase component signal by filtering the estimated derivative of the variable phase component; and, providing the estimated phase signal to a polar demodulation circuit. receiving a modulated signal having a variable phase component wherein the variable phase component includes phase variations in a first phase range; generating a phase-compressed signal having a compressed variable phase component by processing the received modulated signal with a second-harmonic injection locking oscillator, wherein the compressed variable phase component includes phase variations in a compressed phase range being substantially one half the first phase range; generating a delayed phase-compressed signal having a delayed compressed variable phase component that is delayed relative to the compressed variable phase component; combining the phase-compressed signal and the delayed phase-compressed signal to obtain an estimated derivative of the variable phase component; generating an estimated variable phase component signal by filtering the estimated derivative of the variable phase component; and, providing the estimated phase signal to a polar demodulation circuit.
System with a food thermometer and with a control device for the food thermometer, which is capable of controlling the measurement of temperatures by the food thermometer, wherein the control device is configured such that an interval between temperature measurements by the food thermometer is controlled depending on the preparation of a food, characterized in that the control device is configured such that following a switching-on of the food thermometer, the interval between temperature measurements is initially small during an initialization phase and the interval between temperature measurements after the initialization phase is larger, wherein during the initialization phase a radio connection is made between the control device and the food thermometer.
A method for reconstructing an image, comprising: receiving a sinogram input; performing a first denoising operation on the sinogram input prior to performing the initial reconstruction, wherein the first denoising operation is performed using a first trained artificial neural network; performing an initial reconstruction on the sinogram input to generate one or more intermediate images; generating one or multiple intermediate sinogram(s) from the one or multiple intermediate image(s) generated from the sinogram input, wherein generating one or multiple intermediate sinogram(s) from the one or multiple intermediate image(s) generated from the sinogram input comprises reprojecting all or a portion of the one or more intermediate images to generate the one or more intermediate sinograms; iteratively processing the intermediate sinogram(s), wherein the iterative processing comprises performing at least an iterative datafit update on a reconstructed image generated by a most recent iteration of an iterative loop and comparing the reconstructed image with the intermediate image; performing a second denoising operation in addition to the datafit update, wherein the second denoising operation is performed on the reconstructed image using a second trained artificial neural network; and upon completion of the iterative processing, reconstructing a final image and outputting the final image for review, storage, or further processing, wherein the datafit update and the second denoising operation are performed in parallel within the iterative loop. receiving a sinogram input; performing a first denoising operation on the sinogram input prior to performing the initial reconstruction, wherein the first denoising operation is performed using a first trained artificial neural network; performing an initial reconstruction on the sinogram input to generate one or more intermediate images; generating one or multiple intermediate sinogram(s) from the one or multiple intermediate image(s) generated from the sinogram input, wherein generating one or multiple intermediate sinogram(s) from the one or multiple intermediate image(s) generated from the sinogram input comprises reprojecting all or a portion of the one or more intermediate images to generate the one or more intermediate sinograms; iteratively processing the intermediate sinogram(s), wherein the iterative processing comprises performing at least an iterative datafit update on a reconstructed image generated by a most recent iteration of an iterative loop and comparing the reconstructed image with the intermediate image; performing a second denoising operation in addition to the datafit update, wherein the second denoising operation is performed on the reconstructed image using a second trained artificial neural network; and upon completion of the iterative processing, reconstructing a final image and outputting the final image for review, storage, or further processing, wherein the datafit update and the second denoising operation are performed in parallel within the iterative loop.
A salometer and flow rate sensor assembly for a water softener system, said water softener system includes a treatment tank and a brine tank containing a brine solution, the assembly being characterized in that it comprises: at least one sensor housing adapted for being disposed in the brine tank of said water softener system; a first detector set contained inside said housing and configured for indicating whether the brine solution is adequately concentrated, wherein said first detector set includes a first photo emitter, a first photo detector facing said first photo emitter and a first float movably located in a first cavity between said first photo emitter and said first photo detector; and a second detector set contained inside said housing and configured for measuring the brine solution flow rate during brine draw and refill cycles of regeneration, wherein said second detector set includes a first pair of detectors including a second photo emitter and a second photo detector facing said second photo emitter, a second pair of detectors including a third photo emitter and a third photo detector facing said third photo emitter and a second float movably located in a second cavity. at least one sensor housing adapted for being disposed in the brine tank of said water softener system; a first detector set contained inside said housing and configured for indicating whether the brine solution is adequately concentrated, wherein said first detector set includes a first photo emitter, a first photo detector facing said first photo emitter and a first float movably located in a first cavity between said first photo emitter and said first photo detector; and a second detector set contained inside said housing and configured for measuring the brine solution flow rate during brine draw and refill cycles of regeneration, wherein said second detector set includes a first pair of detectors including a second photo emitter and a second photo detector facing said second photo emitter, a second pair of detectors including a third photo emitter and a third photo detector facing said third photo emitter and a second float movably located in a second cavity.
A nonlinear optical system, comprising: an elongated second harmonic generation, SHG, crystal having a longitudinal axis and traversed by a pulsed pump beam at a fundamental frequency which generates a second harmonic, SH, beam, the SHG crystal having an output surface inclined relative to the longitudinal axis of the SHG crystal at a first angle α different from a right angle; an elongated third harmonic generation, THG, crystal having a longitudinal axis, which is parallel to the longitudinal axis of the SHG crystal, and an input surface, which is impinged upon by a remainder of the pump beam and SH beam which both propagate through the THG crystal at a walk-off angle therebetween to generate a third harmonic, TH, beam, the input surface of the THG crystal being inclined to the longitudinal axis of the THG crystal at a second angle δ different from the right angle, wherein the first angle α is within a range of 20° ± 10°, and wherein the second angle δ is derived from equations to: β = arcsin ( sin α × n k = β − α γ = k + δ sin δ × n = sin k + δ wherein n is the refraction index of the THG crystal. an elongated second harmonic generation, SHG, crystal having a longitudinal axis and traversed by a pulsed pump beam at a fundamental frequency which generates a second harmonic, SH, beam, the SHG crystal having an output surface inclined relative to the longitudinal axis of the SHG crystal at a first angle α different from a right angle; an elongated third harmonic generation, THG, crystal having a longitudinal axis, which is parallel to the longitudinal axis of the SHG crystal, and an input surface, which is impinged upon by a remainder of the pump beam and SH beam which both propagate through the THG crystal at a walk-off angle therebetween to generate a third harmonic, TH, beam, the input surface of the THG crystal being inclined to the longitudinal axis of the THG crystal at a second angle δ different from the right angle, wherein the first angle α is within a range of 20° ± 10°, and wherein the second angle δ is derived from equations to: β = arcsin ( sin α × n k = β − α γ = k + δ sin δ × n = sin k + δ wherein n is the refraction index of the THG crystal.