mhurhangee/ep-ind-claims huggingface dataset:
Aircraft comprising at least one cover, a fixed structure which has an opening, an articulation system connecting the cover to the fixed structure, said cover being able to move in rotation about a pivot axis between a closed position in which the cover closes off the opening and an open position in which the cover at least partially frees the opening, said articulation system comprising at least two hinges (60.1, 60.2) each of which has at least two parts with a first part secured to the fixed structure and a second part secured to the cover and at least one pivot shaft connecting the parts in pairs, one of the parts having a gooseneck shape, the pivot shafts of the hinges (60.1, 60.2) being aligned and forming the pivot axis, characterized in that the articulation system comprises at least one pair of stops (68, 70) including a first stop secured to the fixed structure and a second stop secured to the cover, the first and second stops (68, 70) respectively comprising first and second contact surfaces (72, 74) which are cylinder portions having an axis of revolution that coincides with the pivot axis, said contact surfaces being configured to be in contact against one another when the cover is in the closed position, in that the first stop comprises a plate fixed to the fixed structure, a head having a face oriented towards the plate, forming the first contact surface and a body connecting the plate and the head, and in that the second stop comprises at least one first wing connected to the cover, said wing being in the shape of a cylindrical panel that has an axis of revolution which coincides with the pivot axis and a face forming the second contact surface such that the contact surfaces ensure a resumption of some of the forces oriented in a direction perpendicular to the pivot axis when the cover is in the closed position.
A phototherapy treatment apparatus (100, 300) comprising: a bed including (i) at least one of a transparent or a translucent material, (ii) a surface (108, 114) having a plurality of microstructures (116, 384) capable of dispersing light, (iii) a bottom surface and (iv) a plurality of side surfaces; a housing holding the bed; and a light source supported by the housing, the light source being positioned in the housing such that light generated by the light source is directed at one of the plurality of the side surfaces and is transmitted through the transparent or the translucent material of the bed and through the plurality of microstructures such that the light exits the plurality of microstructures having a more diffusive distribution, and wherein the surface having the plurality of microstructures is a top surface, and wherein the light generated by the light source is directed at the one of the plurality of the side surfaces of the bed at an angle such as to produce total internal reflection of the light transmistted through the transparent or the translucent material of the bed and such that the light transmistted through the transparent or the translucent material of the bed exits from the plurality of microstructures at the top surface of the bed. a bed including (i) at least one of a transparent or a translucent material, (ii) a surface (108, 114) having a plurality of microstructures (116, 384) capable of dispersing light, (iii) a bottom surface and (iv) a plurality of side surfaces; a housing holding the bed; and a light source supported by the housing, the light source being positioned in the housing such that light generated by the light source is directed at one of the plurality of the side surfaces and is transmitted through the transparent or the translucent material of the bed and through the plurality of microstructures such that the light exits the plurality of microstructures having a more diffusive distribution, and wherein the surface having the plurality of microstructures is a top surface, and wherein the light generated by the light source is directed at the one of the plurality of the side surfaces of the bed at an angle such as to produce total internal reflection of the light transmistted through the transparent or the translucent material of the bed and such that the light transmistted through the transparent or the translucent material of the bed exits from the plurality of microstructures at the top surface of the bed.
A liquid crystal display projection system comprising: a light source; a first polarizer for receiving light from the light source, the first polarizer having a transmission axis oriented to transmit light having a first polarization; a liquid crystal display panel for receiving light transmitted through the first polarizer and for selectively modulating said transmitted light, the liquid crystal display panel comprising a twisted nematic liquid crystal layer; a second polarizer for receiving light transmitted through the liquid crystal display panel, the second polarizer having a transmission axis oriented substantially perpendicular to the transmission axis of the first polarizer; and a compensating plate, characterized in that the compensating plate includes: a first birefringent element having an optic axis oriented at a first angle to the plate normal, the first angle greater than zero degrees; a second birefringent element (407a, 407b) having an optic axis oriented at a second angle to the plate normal, the second angle substantially equal to zero degrees, wherein the compensating plate is tilted relative to a plane of the liquid crystal display panel. a light source; a first polarizer for receiving light from the light source, the first polarizer having a transmission axis oriented to transmit light having a first polarization; a liquid crystal display panel for receiving light transmitted through the first polarizer and for selectively modulating said transmitted light, the liquid crystal display panel comprising a twisted nematic liquid crystal layer; a second polarizer for receiving light transmitted through the liquid crystal display panel, the second polarizer having a transmission axis oriented substantially perpendicular to the transmission axis of the first polarizer; and a compensating plate, characterized in that the compensating plate includes: a first birefringent element having an optic axis oriented at a first angle to the plate normal, the first angle greater than zero degrees; a second birefringent element (407a, 407b) having an optic axis oriented at a second angle to the plate normal, the second angle substantially equal to zero degrees, wherein the compensating plate is tilted relative to a plane of the liquid crystal display panel. a first birefringent element having an optic axis oriented at a first angle to the plate normal, the first angle greater than zero degrees; a second birefringent element (407a, 407b) having an optic axis oriented at a second angle to the plate normal, the second angle substantially equal to zero degrees, wherein the compensating plate is tilted relative to a plane of the liquid crystal display panel.
A gas turbine engine comprising: a fan case; a translating sleeve positioned downstream from the fan case; a flow channel extending between the fan case and the translating sleeve, the flow channel including an inner diameter and an outer diameter; a structural guide vane positioned within the flow channel and extending from the inner diameter to the outer diameter; and a liner; wherein the liner is positioned between an aft end of the fan case and an aft end of the translating sleeve to reduce vibratory stress on the structural guide vane; and the liner is positioned: (i) along the inner diameter in an inner diameter vane passage, or (ii) along the inner diameter between a trailing edge of the structural guide vane and an inner fixed structure, or (iii) on the inner fixed structure, or (iv) on the translating sleeve, characterised in that the liner in position (i), (ii), (iii) or (iv) has been tuned to a torsion mode resonant frequency of the structural guide vane. a fan case; a translating sleeve positioned downstream from the fan case; a flow channel extending between the fan case and the translating sleeve, the flow channel including an inner diameter and an outer diameter; a structural guide vane positioned within the flow channel and extending from the inner diameter to the outer diameter; and a liner; wherein the liner is positioned between an aft end of the fan case and an aft end of the translating sleeve to reduce vibratory stress on the structural guide vane; and the liner is positioned: (i) along the inner diameter in an inner diameter vane passage, or (ii) along the inner diameter between a trailing edge of the structural guide vane and an inner fixed structure, or (iii) on the inner fixed structure, or (iv) on the translating sleeve, (i) along the inner diameter in an inner diameter vane passage, or (ii) along the inner diameter between a trailing edge of the structural guide vane and an inner fixed structure, or (iii) on the inner fixed structure, or (iv) on the translating sleeve, characterised in that the liner in position (i), (ii), (iii) or (iv) has been tuned to a torsion mode resonant frequency of the structural guide vane.
A liquid crystal light control apparatus configured to execute light control by changing the light transmittance of a liquid crystal light control film comprised in the liquid crystal light control apparatus, the liquid crystal light control apparatus comprising: said liquid crystal light control film and a power supply device that is configured to drive the liquid crystal light control film, wherein the liquid crystal light control film includes a liquid crystal layer, a first transparent electrode layer disposed on one surface of the liquid crystal layer, a second transparent electrode layer disposed on another surface of the liquid crystal layer, a film-side first connection terminal (a) provided at a predetermined position on the first transparent electrode layer, and a film-side second connection terminal (b) provided at a predetermined position on the second transparent electrode layer, the power supply device being configured to supply a predetermined AC voltage between a power-supply-side first connection terminal connected to the film-side first connection terminal (a) and a power-supply-side second connection terminal connected to the film-side second connection terminal (b), characterized in that the condition |Z0| ≤ α × RF is satisfied for α = 0.2, where RF is the DC resistance between the film-side first connection terminal (a) and the film-side second connection terminal (b) of the liquid crystal light control film, |Z0| is the output impedance between the power-supply-side first connection terminal and the power-supply-side second connection terminal of the power supply device. said liquid crystal light control film and a power supply device that is configured to drive the liquid crystal light control film, wherein the liquid crystal light control film includes a liquid crystal layer, a first transparent electrode layer disposed on one surface of the liquid crystal layer, a second transparent electrode layer disposed on another surface of the liquid crystal layer, a film-side first connection terminal (a) provided at a predetermined position on the first transparent electrode layer, and a film-side second connection terminal (b) provided at a predetermined position on the second transparent electrode layer, the power supply device being configured to supply a predetermined AC voltage between a power-supply-side first connection terminal connected to the film-side first connection terminal (a) and a power-supply-side second connection terminal connected to the film-side second connection terminal (b), characterized in that the condition |Z0| ≤ α × RF is satisfied for α = 0.2, where RF is the DC resistance between the film-side first connection terminal (a) and the film-side second connection terminal (b) of the liquid crystal light control film, |Z0| is the output impedance between the power-supply-side first connection terminal and the power-supply-side second connection terminal of the power supply device.
A method for producing a screw-top bottle-can, wherein: forming a shoulder part by reducing a diameter of an aperture part of a closed-end cylindrical body; forming a cylindrical part having an intermediate diameter between a major diameter and a minor diameter of a screw-thread and a tapered part which is tapered from an upper end of the cylindrical part toward an open-end part above the shoulder part; and performing a thread-forming process from the tapered part to the cylindrical part so as to form a starting part of the screw-thread at a middle of the tapered part; characterized in that in a vertical section along a can-axis direction at the starting part of the screw-thread, the thread-forming process is performed so that a bend part between the tapered part and the cylindrical part is arranged in a region between a second ridge of the screw-thread and a groove portion above the second ridge. forming a shoulder part by reducing a diameter of an aperture part of a closed-end cylindrical body; forming a cylindrical part having an intermediate diameter between a major diameter and a minor diameter of a screw-thread and a tapered part which is tapered from an upper end of the cylindrical part toward an open-end part above the shoulder part; and performing a thread-forming process from the tapered part to the cylindrical part so as to form a starting part of the screw-thread at a middle of the tapered part; characterized in that in a vertical section along a can-axis direction at the starting part of the screw-thread, the thread-forming process is performed so that a bend part between the tapered part and the cylindrical part is arranged in a region between a second ridge of the screw-thread and a groove portion above the second ridge.
A computer-implemented method for identifying geological features of a subsurface region from geophysical data gathered from the region, said method comprising: (a) selecting a curvelet transform and a corresponding basis set of elementary functions, named curvelet functions, wherein the term curvelet transform also includes the contourlet and surfacelet transforms; (b) transforming the geophysical data into a curvelet representation of the data using the selected basis set and transform, wherein the geophysical data are represented as a series expansion of curvelet functions each multiplied by a corresponding expansion coefficient, named weight; (c) computing the geophysical attributes dip, frequency and location of each curvelet function used in the curvelet representation of the geophysical data; and (d) identifying geologic features directly from the weights and computed geophysical attributes of the curvelet functions. (a) selecting a curvelet transform and a corresponding basis set of elementary functions, named curvelet functions, wherein the term curvelet transform also includes the contourlet and surfacelet transforms; (b) transforming the geophysical data into a curvelet representation of the data using the selected basis set and transform, wherein the geophysical data are represented as a series expansion of curvelet functions each multiplied by a corresponding expansion coefficient, named weight; (c) computing the geophysical attributes dip, frequency and location of each curvelet function used in the curvelet representation of the geophysical data; and (d) identifying geologic features directly from the weights and computed geophysical attributes of the curvelet functions.
Cyanide-free electrolyte for galvanic deposition of gold alloys comprising a neutral or alkaline aqueous solution of at least one anionic complex of the general formula I [Au n] (n-1)- I with L selected from the group of the anions of 1- and 2-thioglycerine, monothioglycol, mercapto-n-butanetriol, mercapto-i-butanetriol, mercaptopentanetetrol, cysteamine or combinations hereof, and n = 2 to 5 and at least one anionic complex of the general formula II [M m] x- II with M = alloy former for gold selected from the group comprising Cu, Ag, Fe, Ru, In, Ga, Ge, Sn, Pd, Sb, Bi, Co, Rh, Ir, Ni, Zn, Cd, Zr and Pb, L selected from the group of the anions of 1- and 2-thioglycerine, monothioglycol, mercapto-n-butanetriol, mercapto-i-butanetriol, mercaptopentanetetrol, cysteamine or combinations hereof, and m = 2 to 6 and x = 1 to 4, characterised in that the electrolyte comprises at least one brightener.
A non-invasive method for determining at least one physiological parameter (V, Q, CvCO 2) related to the effective lung volume, the cardiac output, and/or the carbon dioxide content of venous blood of a subject, comprising the steps of: - ventilating the subject using a cyclic ventilation pattern wherein each cycle comprises a first number of breaths of increased ventilation and a second number of breaths of decreased ventilation, wherein the total number of breaths in each cycle of the cyclic ventilation pattern is five or less, and, during a sequence of breaths: - measuring an inspiratory flow of inspiration gas inhaled by the subject, an expiratory flow of expiration gas exhaled by the subject, and the carbon dioxide content of at least the expiration gas, - determining, for each breath in a sequence of breaths, a first parameter,(ΔF A CO2) related to the fraction of alveolar carbon dioxide (F A CO 2) of the subject, a second parameter (CaCO 2) related to the carbon dioxide content of the arterial blood (CaCO 2) of the subject, and a third parameter (VTCO 2) related to carbon dioxide elimination (VCO 2) of the subject, based on the measured inspiratory flow, expiratory flow and carbon dioxide content, and - determining said at least one physiological parameter (V, Q, CvCO 2) based on the correlation of the first (ΔF A CO2), second (CaCO 2) and third (VTCO 2) parameters in said sequence of breaths. - ventilating the subject using a cyclic ventilation pattern wherein each cycle comprises a first number of breaths of increased ventilation and a second number of breaths of decreased ventilation, wherein the total number of breaths in each cycle of the cyclic ventilation pattern is five or less, and, during a sequence of breaths: - measuring an inspiratory flow of inspiration gas inhaled by the subject, an expiratory flow of expiration gas exhaled by the subject, and the carbon dioxide content of at least the expiration gas, - determining, for each breath in a sequence of breaths, a first parameter,(ΔF A CO2) related to the fraction of alveolar carbon dioxide (F A CO 2) of the subject, a second parameter (CaCO 2) related to the carbon dioxide content of the arterial blood (CaCO 2) of the subject, and a third parameter (VTCO 2) related to carbon dioxide elimination (VCO 2) of the subject, based on the measured inspiratory flow, expiratory flow and carbon dioxide content, and - determining said at least one physiological parameter (V, Q, CvCO 2) based on the correlation of the first (ΔF A CO2), second (CaCO 2) and third (VTCO 2) parameters in said sequence of breaths.
A method for measurement of gain margin of a hearing assistance device having a receiver and a microphone, comprising: receiving sound signals with the microphone for processing in a system; injecting white noise into a forward feed of the system, the white noise played by the receiver; processing samples of the signals received by the microphone and the white noise to produce a measured impulse response, the measured impulse response having a first peak and a second peak; transforming the first peak and the second peak of the measured impulse response into the frequency domain, generating a first peak profile and a second peak profile; and deconvolving the first peak profile and the second peak profile to produce a gain margin as a function of frequency. receiving sound signals with the microphone for processing in a system; injecting white noise into a forward feed of the system, the white noise played by the receiver; processing samples of the signals received by the microphone and the white noise to produce a measured impulse response, the measured impulse response having a first peak and a second peak; transforming the first peak and the second peak of the measured impulse response into the frequency domain, generating a first peak profile and a second peak profile; and deconvolving the first peak profile and the second peak profile to produce a gain margin as a function of frequency.
A nucleic acid molecule encoding a Caviidae allergen comprising a polynucleotide selected from the group consisting of: (a) a polynucleotide sequence as shown in SEQ ID NO:19; (b) a polynucleotide sequence encoding a polypeptide as shown in SEQ ID NO:20; (c) a polynucleotide sequence which has at least 80% identity to the polynucleotides as defined in (a) or (b) encoding a Caviidae allergen; (d) a polynucleotide sequence encoding a polypeptide which has at least 85% identity to the polypeptide as shown in SEQ ID NO:20; and (e) a polynucleotide sequence being degenerate as a result of the genetic code to the nucleotide sequence as defined in any one of (a) to (d). (a) a polynucleotide sequence as shown in SEQ ID NO:19; (b) a polynucleotide sequence encoding a polypeptide as shown in SEQ ID NO:20; (c) a polynucleotide sequence which has at least 80% identity to the polynucleotides as defined in (a) or (b) encoding a Caviidae allergen; (d) a polynucleotide sequence encoding a polypeptide which has at least 85% identity to the polypeptide as shown in SEQ ID NO:20; and (e) a polynucleotide sequence being degenerate as a result of the genetic code to the nucleotide sequence as defined in any one of (a) to (d).
A virtualized network function, VNF, processing policy determining method, comprising: receiving, by a management node, a configuration feedback message sent by an element manager, EM; characterized in that the configuration feedback message is used to indicate whether an application parameter of a VNF is successfully configured; and the method further comprises determining, by the management node, a processing policy for the VNF according to the configuration feedback message, wherein the processing policy is used by the management node to process the VNF. receiving, by a management node, a configuration feedback message sent by an element manager, EM; characterized in that the configuration feedback message is used to indicate whether an application parameter of a VNF is successfully configured; and the method further comprises determining, by the management node, a processing policy for the VNF according to the configuration feedback message, wherein the processing policy is used by the management node to process the VNF.