mhurhangee/ep-ind-claims huggingface dataset:
An encoder comprising: a synthesizer configured to generate a synthesized high band audio signal based on a high band audio signal; gain shape circuitry configured to: determine a number of sub-frames of multiple sub-frames that are saturated, wherein determining that a particular sub-frame of the multiple subframes is saturated comprises determining that a number of bits needed to represent an energy value associated with the particular sub-frame exceeds a fixed-point width associated with the encoder, the multiple sub-frames included in a frame of the high band audio signal; apply a first scaling factor to scale the high band audio signal if the particular sub-frame is saturated to generate a first scaled high band audio signal; determine a gain shape parameter of the particular sub-frame based on a first ratio associated with the first scaled high band audio signal and the synthesized high band audio signal; a gain shape compensator configured to generate a compensated synthesized high band audio signal based on the synthesized high band audio signal and based on the gain shape parameter; gain frame circuitry configured to: apply a second scaling factor to scale the high band audio signal to generate a second scaled high band audio signal based on the number of sub-frames that are saturated; determine a gain frame parameter corresponding to the frame based on the number of sub-frames that are saturated and based on a second ratio associated with the second scaled high band audio signal and the compensated synthesized high band audio signal. determine a number of sub-frames of multiple sub-frames that are saturated, wherein determining that a particular sub-frame of the multiple subframes is saturated comprises determining that a number of bits needed to represent an energy value associated with the particular sub-frame exceeds a fixed-point width associated with the encoder, the multiple sub-frames included in a frame of the high band audio signal; apply a first scaling factor to scale the high band audio signal if the particular sub-frame is saturated to generate a first scaled high band audio signal; determine a gain shape parameter of the particular sub-frame based on a first ratio associated with the first scaled high band audio signal and the synthesized high band audio signal; apply a second scaling factor to scale the high band audio signal to generate a second scaled high band audio signal based on the number of sub-frames that are saturated; determine a gain frame parameter corresponding to the frame based on the number of sub-frames that are saturated and based on a second ratio associated with the second scaled high band audio signal and the compensated synthesized high band audio signal.
A system with a driverless transport system, which comprises driverless transport vehicles, and with a production facility and/or packaging facility, which has a plurality of processing stations with transfer areas, wherein the system is configured such that loads of, in each case, a specified size, such as pallets or the like, are conveyed between the transfer areas by means of transport vehicles, which each have at least two specified support areas for the loads, characterised in that the system is configured such that a switchover between the two specified support areas of the transport vehicles at a transfer area is carried out by turning the particular vehicle around by 180 degrees, wherein a transport vehicle, after its positioning at one of the transfer areas of a processing station, picks up a load onto its first support area, subsequently turns around by 180 degrees, drives up to the transfer area with its second support area, and then picks up a further load onto the second support area.
The use of a selective TrkA receptor agonist for the manufacture of a medicament for treating or preventing glaucoma, wherein the selective TrkA receptor agonist is a β-turn peptidomimetic cyclic compound having a macrocyclic ring of 13 to 17 atoms, and is to be administered simultaneously or sequentially with betaxolol.
A method of manufacturing a silicon carbide substrate, comprising the steps of: preparing a plurality of silicon carbide single crystals each having a main surface and a crystal structure of hexagonal crystal, the main surface being inclined by an off angle in an off direction from plane of said hexagonal crystal; and measuring photoluminescence of said main surface of each of said plurality of silicon carbide single crystals; wherein said step of measuring photoluminescence includes the step of passing excitation light from a mercury lamp through a band-pass filter passing light having the wavelength of about 313 nm, and irradiating said main surface with said excitation light having higher energy than band-gap of the hexagonal silicon carbide, and the step of observing emitting regions of photoluminescent light having a wavelength exceeding 650 nm caused by said excitation light; said method further comprising the step of attaining crystal growth of silicon carbide through sublimation method, using as a seed crystal one of said plurality of silicon carbide single crystals of which number of said emitting regions having a dimension of at most 15 μm in a direction perpendicular to said off direction and a dimension in a direction parallel to said off direction not larger than a value obtained by dividing penetration length of said excitation light in the hexagonal silicon carbide by a tangent of said off angle is at most 1 x 10 4 per 1 cm 2. preparing a plurality of silicon carbide single crystals each having a main surface and a crystal structure of hexagonal crystal, the main surface being inclined by an off angle in an off direction from plane of said hexagonal crystal; and measuring photoluminescence of said main surface of each of said plurality of silicon carbide single crystals; wherein said step of measuring photoluminescence includes the step of passing excitation light from a mercury lamp through a band-pass filter passing light having the wavelength of about 313 nm, and irradiating said main surface with said excitation light having higher energy than band-gap of the hexagonal silicon carbide, and the step of observing emitting regions of photoluminescent light having a wavelength exceeding 650 nm caused by said excitation light; said method further comprising the step of attaining crystal growth of silicon carbide through sublimation method, using as a seed crystal one of said plurality of silicon carbide single crystals of which number of said emitting regions having a dimension of at most 15 μm in a direction perpendicular to said off direction and a dimension in a direction parallel to said off direction not larger than a value obtained by dividing penetration length of said excitation light in the hexagonal silicon carbide by a tangent of said off angle is at most 1 x 10 4 per 1 cm 2.
A plastic composition comprising at least one polyester, biological entities having a polyester-degrading activity suitable to degrade said at least one polyester and at least an anti-acid filler, wherein the biological entities represent less than 11% by weight, based on the total weight of the plastic composition, wherein the biological entities comprise at least an enzyme having a polyester-degrading activity and/or at least a microorganism expressing an enzyme having a polyester-degrading activity, wherein the enzyme having a polyester-degrading activity is selected from depolymerase, esterase, lipase, cutinase, carboxylesterase, protease, and polyesterase, and wherein the anti-acid filler is selected from the group consisting of carbonate salts, metal carbonate, hydroxide salts, metal hydroxide, silicate salts, hydrotalcite, metal oxide, oxide salts, sulphate salts, phosphate salts, and clay.
Method for the continuous production of laminates made of at least two fibre bands (1, 1', 1") made of fibres which are embedded unidirectionally in a plastic material matrix, having the following steps: a) transport of the fibre bands (1, 1', 1") from respectively one material store (2, 2', 2") by at least one transport roller (3a, 3b, 3a', 3b', 3a", 3b") to a joining station, b) layer-like combining of the fibres bands (1, 1', 1") in the joining station by at least two consolidation units, c) joining the fibre bands (1, 1', 1") by means of the two consolidation units to form a continuous laminate and also d) solidification of the laminate, wherein before or during step d), shaping of the laminate with circular, S-shaped or meandering geometries is effected by means of at least two shaping units the shaping units (9, 9') being positioned behind the consolidation units such that different shapes of the laminate are produced during solidification of the laminate due to the stressing of the laminate. a) transport of the fibre bands (1, 1', 1") from respectively one material store (2, 2', 2") by at least one transport roller (3a, 3b, 3a', 3b', 3a", 3b") to a joining station, b) layer-like combining of the fibres bands (1, 1', 1") in the joining station by at least two consolidation units, c) joining the fibre bands (1, 1', 1") by means of the two consolidation units to form a continuous laminate and also d) solidification of the laminate,
Rubber mixtures, characterized in that they comprise at least one rubber, at least one mercaptosilane of the general formula I R 1 3 Si-R 2 -S-R 3 I and at least one mixture of polysulfanes of the formula II R 1 3 Si-R 2 -S x -R 2 -SiR 1 3 II where R 1 are the same or different and are an alkyl polyether group -O-(R 4 -O) m -R 5, C1-C12-alkyl- or R 6 O- group, R 2 are the same or different and are a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, R 3 is H, CN or (C=O) -R 7, R 4 are the same or different and are a branched or unbranched aliphatic divalent C1-C30 hydrocarbon group, m is 1 to 30, R 5 consists of at least 1 carbon atom and is an unsubstituted or substituted, branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 6 is H, C1-C30 branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 7 is C1-C30 branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, and x is an integer from 2 to 10, the proportion of polysulfanes in which x = 2 reaches a value of at least 90% by weight, based on the total amount of polysulfanes with x = 2 to 10. where R 1 are the same or different and are an alkyl polyether group -O-(R 4 -O) m -R 5, C1-C12-alkyl- or R 6 O- group, R 2 are the same or different and are a branched or unbranched, saturated or unsaturated, aliphatic, aromatic or mixed aliphatic/aromatic divalent C1-C30 hydrocarbon group, R 3 is H, CN or (C=O) -R 7, R 4 are the same or different and are a branched or unbranched aliphatic divalent C1-C30 hydrocarbon group, m is 1 to 30, R 5 consists of at least 1 carbon atom and is an unsubstituted or substituted, branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 6 is H, C1-C30 branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, R 7 is C1-C30 branched or unbranched monovalent alkyl, alkenyl, aryl or aralkyl group, and x is an integer from 2 to 10, the proportion of polysulfanes in which x = 2 reaches a value of at least 90% by weight, based on the total amount of polysulfanes with x = 2 to 10.
A projection system comprising: a projecting unit that projects an image onto a projection plane; Sensor units (30a,30b) that are installed at a predetermined position in an area in which the image is projected on the projection plane, each including a photoelectric unit that generates power corresponding to an intensity of projection light projected by the projecting unit, and that supplies the power to the sensor units (30a, 30b); and an image processing unit that converts at least image data projected at an installation position of the photoelectric unit included in image data provided to the projecting unit into white image data or converts whole image data into white image data; a light intensity calculating unit that calculates a light intensity of the image data projected at the installation position of the photoelectric unit per unit time in the image data provided to the projecting unit, wherein the image processing unit adjusts the number of frames of image data to be converted into the white image data per unit time based on the light intensity calculated by the light intensity calculating unit, wherein the white image data is inserted into the projected image data at the positions of the sensor units (30a, 30b). a projecting unit that projects an image onto a projection plane; Sensor units (30a,30b) that are installed at a predetermined position in an area in which the image is projected on the projection plane, each including a photoelectric unit that generates power corresponding to an intensity of projection light projected by the projecting unit, and that supplies the power to the sensor units (30a, 30b); and an image processing unit that converts at least image data projected at an installation position of the photoelectric unit included in image data provided to the projecting unit into white image data or converts whole image data into white image data; a light intensity calculating unit that calculates a light intensity of the image data projected at the installation position of the photoelectric unit per unit time in the image data provided to the projecting unit, wherein the image processing unit adjusts the number of frames of image data to be converted into the white image data per unit time based on the light intensity calculated by the light intensity calculating unit, wherein the white image data is inserted into the projected image data at the positions of the sensor units (30a, 30b).
A vaccine for treatment and/or prevention of atherosclerosis, the vaccine comprising an immunogenic agent for T cell receptor beta variable 31 or a T cell receptor beta variable 30, wherein the immunogenic agent is selected from the group comprising a murine T cell receptor beta variable 31 (TCR TRBV31) or a fragment thereof, a human T cell receptor beta variable 30 (TCR TRBV30) or a fragment thereof, an antibody or a fragment thereof reactive to murine TCR TRBV31 or a fragment thereof, or an antibody or a fragment thereof reactive to human TCR TRBV30 or a fragment thereof.
A shifting roll awning assembly, comprising: a roller tube having a first end and a second end, said roller tube having a canopy rolled thereon; a first cap at one of said ends of said roller tube, said first cap having a portion of a universal joint formed thereon; a second cap at the other of said ends, said second cap is journaled to a rotary shaft allowing rotation of said roller tube relative to said rotary shaft; said universal joint being also connected to a drive shaft at said one of said first and said second ends; a drive assembly operably connected to said drive shaft to drive said first cap, said second cap and said roller tube about said rotary shaft, said drive assembly providing an input in a first direction and an output in a second direction at an angle to said first direction; and a receiver operably connected to said input of said drive assembly, said receiver having an input to accept a removable torque input device. a roller tube having a first end and a second end, said roller tube having a canopy rolled thereon; a first cap at one of said ends of said roller tube, said first cap having a portion of a universal joint formed thereon; a second cap at the other of said ends, said second cap is journaled to a rotary shaft allowing rotation of said roller tube relative to said rotary shaft; said universal joint being also connected to a drive shaft at said one of said first and said second ends; a drive assembly operably connected to said drive shaft to drive said first cap, said second cap and said roller tube about said rotary shaft, said drive assembly providing an input in a first direction and an output in a second direction at an angle to said first direction; and a receiver operably connected to said input of said drive assembly, said receiver having an input to accept a removable torque input device.
A method for analyzing the state of an electrical operating resource, wherein the method includes - applying a test voltage to the operating resource; - acquiring a measurement signal at a connection point of the operating resource; - ascertaining transfer parameters that characterize a signal transmission from a location of a partial discharge in the operating resource to the connection point, depending on the measurement signal; - determining at least one characteristic variable of the partial discharge depending on the transfer parameters; wherein - the ascertainment of the transfer parameters contains a processing of the measurement signal in accordance with a method for linear predictive coding. - applying a test voltage to the operating resource; - acquiring a measurement signal at a connection point of the operating resource; - ascertaining transfer parameters that characterize a signal transmission from a location of a partial discharge in the operating resource to the connection point, depending on the measurement signal; - determining at least one characteristic variable of the partial discharge depending on the transfer parameters; - the ascertainment of the transfer parameters contains a processing of the measurement signal in accordance with a method for linear predictive coding.
A synchronous drive assembly having a predetermined design PLD and comprising at least a driver and a driven pulley, and a toothed belt in driving engagement with said pulleys; said toothed belt comprising: an elastomeric belt body; a tensile cord having a diameter; a jacket having a compressed thickness (Th); and a belt optical PLD; wherein the ratio of the cord diameter to the jacket thickness (Th) is in the range of from about 0.7 to about 1.7; characterised in that: the ratio of the belt PLD to the design PLD is in the range of from 1.24 to about 1.75. an elastomeric belt body; a tensile cord having a diameter; a jacket having a compressed thickness (Th); and a belt optical PLD; wherein the ratio of the cord diameter to the jacket thickness (Th) is in the range of from about 0.7 to about 1.7; characterised in that: the ratio of the belt PLD to the design PLD is in the range of from 1.24 to about 1.75. the ratio of the belt PLD to the design PLD is in the range of from 1.24 to about 1.75.
System (10, 100, 200) for non-destructive penetration of a substrate, said system comprising an excavation assembly, in turn comprising: - a supporting body having a perimetric edge defining a closed path; characterized in that the system comprises: - a distribution apparatus at least partly protruding transversally relative to said perimetric edge, movable in a guided manner on said supporting body, and for transversally distributing a quantity of hardenable or solidifiable material towards the outside of said perimetric edge, so as to be able to lay a plurality of axially superimposed annular layers (s) of said hardenable or solidifiable material defining a tubular structure around said excavation assembly; and - a motor device for moving said distribution apparatus on said supporting body. - a supporting body having a perimetric edge defining a closed path; - a distribution apparatus at least partly protruding transversally relative to said perimetric edge, movable in a guided manner on said supporting body, and for transversally distributing a quantity of hardenable or solidifiable material towards the outside of said perimetric edge, so as to be able to lay a plurality of axially superimposed annular layers (s) of said hardenable or solidifiable material defining a tubular structure around said excavation assembly; and - a motor device for moving said distribution apparatus on said supporting body.
A region access platform, characterized in that the region access platform is set to: receive a positioning request from a positioning client, and authenticate the positioning client, if the authentication is passed, obtain a positioning result locally or from a mobile positioning center, and return the positioning result to the positioning client; wherein, said region access platform comprises a region base station database module, and said region base station database module is set to: store location information of all base stations in a service area of said region access platform; wherein said region access platform is set to obtain the positioning result locally or from the mobile positioning center as follows: when the positioning request is a coarse positioning request, obtaining the positioning result locally by querying said region base station database module, wherein said region access platform is set to obtain information of a cell in which a to-be-positioned terminal is located by querying a core network, and query said region base station database module by the cell information to obtain location information of the terminal; when said positioning request is a high-precision positioning request, obtaining the positioning result from the mobile positioning center. receive a positioning request from a positioning client, and authenticate the positioning client, if the authentication is passed, obtain a positioning result locally or from a mobile positioning center, and return the positioning result to the positioning client; wherein, said region access platform comprises a region base station database module, and said region base station database module is set to: store location information of all base stations in a service area of said region access platform; wherein said region access platform is set to obtain the positioning result locally or from the mobile positioning center as follows: when the positioning request is a coarse positioning request, obtaining the positioning result locally by querying said region base station database module, wherein said region access platform is set to obtain information of a cell in which a to-be-positioned terminal is located by querying a core network, and query said region base station database module by the cell information to obtain location information of the terminal; when said positioning request is a high-precision positioning request, obtaining the positioning result from the mobile positioning center.
Process for recovering gold and/or silver and/or at least one platinum metal from constituents of a fuel cell stack of a fuel cell or of an electrolyzer, wherein the constituents are treated with a stream of an aqueous electrolyte solution and with at least one gaseous oxidant in at least one oxidation step in the fuel cell or the electrolyzer and the constituents are treated with a stream of an aqueous electrolyte solution and with at least one gaseous reducing agent in at least one reduction step in the fuel cell or the electrolyzer.