mhurhangee/ep-ind-claims huggingface dataset:
A dielectric filter comprising at least one resonator using a TM mode, wherein the resonator includes at least the following: a three-dimensionally shaped dielectric that includes a first surface and a second surface opposite to the first surface; a case that includes a first inner surface and a second inner surface facing the first inner surface and that accommodates the dielectric so that the first surface faces the first inner surface while the second surface faces the second inner surface; an intermediate member that is disposed between the first inner surface and the first surface and that is movable at least in a direction from the first inner surface toward the second inner surface; and a pressing member that is capable of pressing the intermediate member in a direction from the first inner surface toward the second inner surface, so as to cause a pressure to be applied to the first surface of the dielectric; wherein the pressing member is a screw configured to press directly on the intermediate member; and wherein the dielectric includes a recessed portion that is open toward the second inner surface, and the resonator includes a frequency adjusting screw that protrudes from the second inner surface toward the recessed portion of the dielectric. a three-dimensionally shaped dielectric that includes a first surface and a second surface opposite to the first surface; a case that includes a first inner surface and a second inner surface facing the first inner surface and that accommodates the dielectric so that the first surface faces the first inner surface while the second surface faces the second inner surface; an intermediate member that is disposed between the first inner surface and the first surface and that is movable at least in a direction from the first inner surface toward the second inner surface; and a pressing member that is capable of pressing the intermediate member in a direction from the first inner surface toward the second inner surface, so as to cause a pressure to be applied to the first surface of the dielectric; wherein the pressing member is a screw configured to press directly on the intermediate member; and wherein the dielectric includes a recessed portion that is open toward the second inner surface, and the resonator includes a frequency adjusting screw that protrudes from the second inner surface toward the recessed portion of the dielectric.
A transmission device comprising: a video encoding unit configured to generate a video stream having progressive video data; a subtitle encoding unit configured to generate a subtitle stream having progressive subtitle bitmap data, wherein information indicating whether a progressive data block is present or a top-field data block and a bottom-field data block are present is inserted into the subtitle stream, the progressive subtitle bitmap data not divided is arranged in the progressive data block when the information indicates the progressive data block is present; an identification-information insertion unit configured to insert, into a layer of the subtitle stream, identification information indicating display rendering type of the progressive subtitle bitmap data, wherein the identification information indicating that, after performance of coordinate transform and resolution transform to the progressive subtitle bitmap data having second resolution, the progressive subtitle bitmap data is to be superimposed onto the progressive video data having first resolution higher than the second resolution; and a transmission unit configured to transmit a container including the video stream and the subtitle stream, in a predetermined format, wherein a component descriptor having a resolution information indicating resolution of video data on which the progressive subtitle bitmap data is to be superimposed is inserted into a layer of the container. a video encoding unit configured to generate a video stream having progressive video data; a subtitle encoding unit configured to generate a subtitle stream having progressive subtitle bitmap data, wherein information indicating whether a progressive data block is present or a top-field data block and a bottom-field data block are present is inserted into the subtitle stream, the progressive subtitle bitmap data not divided is arranged in the progressive data block when the information indicates the progressive data block is present; an identification-information insertion unit configured to insert, into a layer of the subtitle stream, identification information indicating display rendering type of the progressive subtitle bitmap data, wherein the identification information indicating that, after performance of coordinate transform and resolution transform to the progressive subtitle bitmap data having second resolution, the progressive subtitle bitmap data is to be superimposed onto the progressive video data having first resolution higher than the second resolution; and a transmission unit configured to transmit a container including the video stream and the subtitle stream, in a predetermined format, wherein a component descriptor having a resolution information indicating resolution of video data on which the progressive subtitle bitmap data is to be superimposed is inserted into a layer of the container.
A crystal of luliconazole having such a crystal habit that plane is a specific crystal growth surface: wherein: I, which is included in I, I, I, I, I, I, I, I, I, I, I, I, I, I, and I, takes a first place or a second place as ranked in an order starting from those having a high peak intensity; and I with respect to a sum total of I, I, I, I, I, I, I, I, I, I, I, I, I, I, and I is not less than 20%, provided that: peak intensities of diffraction peaks, which correspond to plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, and plane, are designated as I, I, I, I, I, I, I, I, I, I, I, I, I, 1, and I respectively in relation to the diffraction peaks detected in a range of 2 θ = 5 to 35° in powder X-ray diffraction measurement in which CuKα is used as an X-ray source. I, which is included in I, I, I, I, I, I, I, I, I, I, I, I, I, I, and I, takes a first place or a second place as ranked in an order starting from those having a high peak intensity; and I with respect to a sum total of I, I, I, I, I, I, I, I, I, I, I, I, I, I, and I is not less than 20%, provided that: peak intensities of diffraction peaks, which correspond to plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, plane, and plane, are designated as I, I, I, I, I, I, I, I, I, I, I, I, I, 1, and I respectively in relation to the diffraction peaks detected in a range of 2 θ = 5 to 35° in powder X-ray diffraction measurement in which CuKα is used as an X-ray source.
A process for determining an actual shear angle (θ) between an interior wall and a facesheet (22, 24) of a cellular panel using an imaging system, the imaging system including a radiation source and a detector diametrically opposed to the radiation source, the method comprising: positioning the cellular panel at a tilt angle (φ) relative to a line extending between the radiation source and the detector; transmitting radiation from the radiation source to the detector through the cellular panel at the tilt angle to obtain an image; measuring a projected shear angle (α) in the obtained image; determining the actual shear angle between the interior wall and the facesheet using the tilt angle and the projected shear angle, and identifying the projected shear angle (α) between a line perpendicular to the facesheet (22, 24) and a line extending through node welds of the interior wall (30, 82, 84). positioning the cellular panel at a tilt angle (φ) relative to a line extending between the radiation source and the detector; transmitting radiation from the radiation source to the detector through the cellular panel at the tilt angle to obtain an image; measuring a projected shear angle (α) in the obtained image; determining the actual shear angle between the interior wall and the facesheet using the tilt angle and the projected shear angle, and identifying the projected shear angle (α) between a line perpendicular to the facesheet (22, 24) and a line extending through node welds of the interior wall (30, 82, 84).
A reduced odor sulfoperoxycarboxylic acid composition comprising: from 0.01 wt.-% to 50 wt.-% of at least one sulfoperoxycarboxylic acid; from 0.1 wt.-% to 20 wt.-% of an alcohol, wherein the alcohol is methanol, a C 2 to C 6 alcohol, nonanol, benzylalkohol or combinations thereof; and an acidulant, wherein the alcohol is effective for forming alkyl esters under the same conditions for sulfoperoxycarboxylic acid formation to reduce the malodors of the sulfoperoxycarboxylic acid compositions associated with those carboxylic acid contaminants formed due to degradation of a sulfoperoxycarboxylic acid composition. from 0.01 wt.-% to 50 wt.-% of at least one sulfoperoxycarboxylic acid; from 0.1 wt.-% to 20 wt.-% of an alcohol, wherein the alcohol is methanol, a C 2 to C 6 alcohol, nonanol, benzylalkohol or combinations thereof; and an acidulant, wherein the alcohol is effective for forming alkyl esters under the same conditions for sulfoperoxycarboxylic acid formation to reduce the malodors of the sulfoperoxycarboxylic acid compositions associated with those carboxylic acid contaminants formed due to degradation of a sulfoperoxycarboxylic acid composition.
A composition comprising a plurality of multimeric purified soluble, monoclonal antigen specific polypeptides, wherein the polypeptides comprise a) a N-terminal leucine rich repeat (LRRNT), b) one or more leucine rich repeats (LRRs), c) a C-terminal leucine rich repeat (LRRCT), and d) a connecting peptide, wherein the connecting peptide comprises an alpha helix and wherein the multimeric soluble, monoclonal antigen specific polypeptides specifically bind a target carbohydrate; or wherein the multimeric soluble, monoclonal antigen specific polypeptides specifically bind a Bacillus anthracis cell surface polypeptide; or wherein the multimeric soluble, monoclonal antigen specific polypeptides specifically bind a viral antigen. a) a N-terminal leucine rich repeat (LRRNT), b) one or more leucine rich repeats (LRRs), c) a C-terminal leucine rich repeat (LRRCT), and d) a connecting peptide, wherein the connecting peptide comprises an alpha helix and wherein the multimeric soluble, monoclonal antigen specific polypeptides specifically bind a target carbohydrate; or wherein the multimeric soluble, monoclonal antigen specific polypeptides specifically bind a Bacillus anthracis cell surface polypeptide; or wherein the multimeric soluble, monoclonal antigen specific polypeptides specifically bind a viral antigen.
A method for inactivating one or more viruses in a sample, wherein the method comprises continuously mixing the sample with one or more virus inactivating agents as the sample flows from the first unit operation to the second unit operation during a process for purifying a target molecule.
A downhole flow control device for controlling a flow of a fluid from a borehole into a well tubular structure or from the well tubular structure into the borehole, comprising: - a base tubular having an axial axis and adapted to be mounted as part of the well tubular structure, the base tubular having a first opening, - a first sleeve arranged within the base tubular, the first sleeve having a first sleeve part and a second sleeve part with a second opening, and the first sleeve being adapted to slide along the axial axis for at least partly aligning the first opening with the second opening, wherein a second sleeve is arranged at least partly between the second sleeve part and the base tubular, and characterised in that the second sleeve has a through-going bore in which an engagement element is arranged for engaging an indentation of the second sleeve part in a first position and for disengaging the indentation of the second sleeve part in a second position, wherein the base tubular has a recess for receiving the engagement element at the second position, wherein the recess has a first recess end and a second recess, the second recess end being closest to the first opening, the first recess end having a first end face which is inclined and the second recess end having a second end face extending in a direction substantially perpendicular to the axial axis, the second sleeve is prevented from sliding past the first opening when the engagement element is in engagement in the recess and abuts the second end face, wherein the first sleeve part has a first end and a second end, and the second sleeve has a first end and a second end, the first end of the first sleeve part abutting the second end of the second sleeve in the first position, and wherein a gap is formed between the second end of the second sleeve and the first end of the first sleeve part when the second sleeve is prevented from movement in a first direction and the first sleeve part continues to move in the first direction past the first opening, whereby fluid communication between the first opening and the second opening is provided via the gap. - a base tubular having an axial axis and adapted to be mounted as part of the well tubular structure, the base tubular having a first opening, - a first sleeve arranged within the base tubular, the first sleeve having a first sleeve part and a second sleeve part with a second opening, and the first sleeve being adapted to slide along the axial axis for at least partly aligning the first opening with the second opening,
A signal switch comprising: a switch arrangement for selectively passing optical wireless communication, OWC, signals received from a plurality of photodetectors for output on an output of the signal switch, the signal switch characterized by a signal strength detector arranged to measure a signal strength of OWC signals as passed by the switch arrangement; and a selection unit for controlling the switch arrangement; wherein the selection unit is configured to estimate, while an OWC signal received from a first one of the photodetectors with a signal strength (RMS A) is being passed by the switch arrangement to said output of the signal switch, a signal strength (RMS B) of an OWC signal received from another one of the photodetectors, by performing an evaluation process in which the selection unit is configured to: control the switch arrangement to pass a combination of the OWC signal from the first photodetector and the OWC signal from the other photodetector; determine, using the signal strength detector, a signal strength (RMS AB) of said combination of OWC signals; and estimate the signal strength (RMS B) of the OWC signal from the other photodetector based on the signal strength (RMS A) of the OWC signal from the first photodetector and the signal strength of said combination (RMS AB) of OWC signals. a switch arrangement for selectively passing optical wireless communication, OWC, signals received from a plurality of photodetectors for output on an output of the signal switch, the signal switch characterized by a signal strength detector arranged to measure a signal strength of OWC signals as passed by the switch arrangement; and a selection unit for controlling the switch arrangement; wherein the selection unit is configured to estimate, while an OWC signal received from a first one of the photodetectors with a signal strength (RMS A) is being passed by the switch arrangement to said output of the signal switch, a signal strength (RMS B) of an OWC signal received from another one of the photodetectors, by performing an evaluation process in which the selection unit is configured to: control the switch arrangement to pass a combination of the OWC signal from the first photodetector and the OWC signal from the other photodetector; determine, using the signal strength detector, a signal strength (RMS AB) of said combination of OWC signals; and estimate the signal strength (RMS B) of the OWC signal from the other photodetector based on the signal strength (RMS A) of the OWC signal from the first photodetector and the signal strength of said combination (RMS AB) of OWC signals. control the switch arrangement to pass a combination of the OWC signal from the first photodetector and the OWC signal from the other photodetector; determine, using the signal strength detector, a signal strength (RMS AB) of said combination of OWC signals; and estimate the signal strength (RMS B) of the OWC signal from the other photodetector based on the signal strength (RMS A) of the OWC signal from the first photodetector and the signal strength of said combination (RMS AB) of OWC signals.
A nickel-base superalloy for single crystal casting comprising: 5.60% to 5.85% aluminum by weight; 9.4% to 9.9% cobalt by weight; 5.0% to 6.0% chromium by weight; 0.08% to 0.35% hafnium by weight; 0.50% to 0.70% molybdenum by weight; 8.0% to 9.0% tantalum by weight; 0.60% to 0.90% titanium by weight; 8.5% to 9.8% tungsten by weight; and the balance comprising nickel and minor amounts of optional elements, the total amount of optional elements being 1% or less by weight, wherein the optional elements are controlled to maximums of 100 ppm carbon, 0.04% silicon, 0.01% manganese, 3 ppm sulfur, 30 ppm phosphorous, 30 ppm boron, 0.1% niobium, 150 ppm zirconium, 0.15% rhenium, 0.01% copper, 0.15% iron, 0.1 % vanadium, 0.1 % ruthenium, 0.15% platinum, 0.15 % palladium, 200 ppm magnesium, 5 ppm nitrogen, 5 ppm oxygen, 2 ppm silver, 0.2 ppm bismuth, 10 ppm gallium, 25 ppm calcium, 1 ppm lead, 0.5 ppm selenium, 0.2 ppm tellurium, 0.2 ppm thallium, 10 ppm tin, 2 ppm antimony, 2 ppm arsenic, 5 ppm zinc, 2 ppm mercury, 2 ppm cadmium, 2 ppm germanium, 2 ppm gold, 2 ppm indium, 20 ppm sodium, 10 ppm potassium, 10 ppm barium, 2 ppm uranium, lanthanum and yttrium in a total amount of 5 to 80 ppm, and 2 ppm thorium. 5.60% to 5.85% aluminum by weight; 9.4% to 9.9% cobalt by weight; 5.0% to 6.0% chromium by weight; 0.08% to 0.35% hafnium by weight; 0.50% to 0.70% molybdenum by weight; 8.0% to 9.0% tantalum by weight; 0.60% to 0.90% titanium by weight; 8.5% to 9.8% tungsten by weight; and the balance comprising nickel and minor amounts of optional elements, the total amount of optional elements being 1% or less by weight, wherein the optional elements are controlled to maximums of 100 ppm carbon, 0.04% silicon, 0.01% manganese, 3 ppm sulfur, 30 ppm phosphorous, 30 ppm boron, 0.1% niobium, 150 ppm zirconium, 0.15% rhenium, 0.01% copper, 0.15% iron, 0.1 % vanadium, 0.1 % ruthenium, 0.15% platinum, 0.15 % palladium, 200 ppm magnesium, 5 ppm nitrogen, 5 ppm oxygen, 2 ppm silver, 0.2 ppm bismuth, 10 ppm gallium, 25 ppm calcium, 1 ppm lead, 0.5 ppm selenium, 0.2 ppm tellurium, 0.2 ppm thallium, 10 ppm tin, 2 ppm antimony, 2 ppm arsenic, 5 ppm zinc, 2 ppm mercury, 2 ppm cadmium, 2 ppm germanium, 2 ppm gold, 2 ppm indium, 20 ppm sodium, 10 ppm potassium, 10 ppm barium, 2 ppm uranium, lanthanum and yttrium in a total amount of 5 to 80 ppm, and 2 ppm thorium.
An imaging device including a plurality of imaging modes appropriate for capturing an image of a subject, the imaging modes including scene modes in each of which an image of the subject is captured according to lens characteristics of a mounted lens, the lens being adapted to be exchangeable, the imaging device comprising: an imaging mode determiner adapted to obtain the lens characteristics of the mounted lens, to discriminate the mounted lens from other lenses, and to determine one or more selectable scene modes out of the scene modes; and an imaging mode presenter configured to present the one or more selectable scene modes, which have been determined by the imaging mode determiner on a screen, characterized in that the one or more selectable scene modes can be manually customized, marked, unmarked or deleted or another scene mode not determined by the imaging mode determiner can be added by the user during a scene mode manipulation operation. an imaging mode determiner adapted to obtain the lens characteristics of the mounted lens, to discriminate the mounted lens from other lenses, and to determine one or more selectable scene modes out of the scene modes; and an imaging mode presenter configured to present the one or more selectable scene modes, which have been determined by the imaging mode determiner on a screen, characterized in that the one or more selectable scene modes can be manually customized, marked, unmarked or deleted or another scene mode not determined by the imaging mode determiner can be added by the user during a scene mode manipulation operation.
Vane-type rotary vacuum pump, comprising a drive motor (1, 17) cooperating with a vane-pump vacuum chamber, wherein all the surfaces situated on the upper half of the pump are arranged in such a way that they are devoid of elements likely to retain liquids or solids, and such that: - either the pump is, at least on one part, provided with removable protection means devoid of surfaces or hollows liable to retain liquids or solids, - or the said drive motor comprises a double casing with an outer part formed by a cylinder and is a water-cooled asynchronous motor having a case forming, with the cylinder, a space in which a cooling fluid can circulate, characterized in that all the upper surfaces of the drive motor (1, 17) and/or of the pumping chamber are inclined downward. - either the pump is, at least on one part, provided with removable protection means devoid of surfaces or hollows liable to retain liquids or solids, - or the said drive motor comprises a double casing with an outer part formed by a cylinder and is a water-cooled asynchronous motor having a case forming, with the cylinder, a space in which a cooling fluid can circulate,
A hearing instrument comprising a microphone for converting sound into an electric audio signal, a signal processor unit (4, 4') that is adapted for operating in a plurality of states including a first state and a second state, and wherein the signal processor unit is adapted for automatic switching between at least the first state and the second state according to a switching strategy, a loudspeaker for conversion of an electrical signal into sound, a user interface that is connected to the signal processor unit and adapted to generate at least one control signal to the signal processor unit in response to a user input indicating user feedback on said automatic switching, wherein the at least one control signal enables the user of the hearing instrument to provide said user feedback, and wherein the hearing instrument is adapted to receive the user input in a predetermined input period upon the automatic switching between the first state and the second state; and characterized in that the hearing instrument comprises a compare function that is adapted to monitor and compare operating parameters of the hearing instrument and wherein the compare function provides an output as a result of the comparison, and wherein the hearing instrument is adapted to enable the user feedback according to user feedback settings that are adjusted according to the output of the compare function.