mhurhangee/ep-ind-claims huggingface dataset:
A terminal comprising an apparatus for adjusting volume, the apparatus comprising: a gain extractor configured to extract a gain from a header of each of a plurality of frames constituting an audio file when switching to an automatic volume adjustment mode while playing the audio file, wherein the gain indicates an average volume of each frame and is extracted by analyzing a header of each of the plurality frames constituting the audio file; a pre-processor configured to perform a pre-processing operation of removing or filtering error components in all gains extracted from the audio file; an extractor configured to extract an average gain of the pre-processed all gains and set the extracted average gain as a representative volume; an audio file player configured to play the audio file with a master volume that is adjusted by a deviation between the representative volume set by the extractor and a reference volume; and a display configured to display a first master volume determined before switching to the automatic volume adjustment mode and a second master volume determined after switching to the automatic volume adjustment mode in visually different ways. a gain extractor configured to extract a gain from a header of each of a plurality of frames constituting an audio file when switching to an automatic volume adjustment mode while playing the audio file, wherein the gain indicates an average volume of each frame and is extracted by analyzing a header of each of the plurality frames constituting the audio file; a pre-processor configured to perform a pre-processing operation of removing or filtering error components in all gains extracted from the audio file; an extractor configured to extract an average gain of the pre-processed all gains and set the extracted average gain as a representative volume; an audio file player configured to play the audio file with a master volume that is adjusted by a deviation between the representative volume set by the extractor and a reference volume; and a display configured to display a first master volume determined before switching to the automatic volume adjustment mode and a second master volume determined after switching to the automatic volume adjustment mode in visually different ways.
Haymaking machine including a frame comprised of a more or less central longitudinal structure intended to be connected to a tractor and of a transverse structure that is fitted with several rotors to move plants on the ground and in front of which are positioned protection means constituted by at least one flexible portion (18, 19), the said transverse structure including side parts (6 and 7) that can be unfolded into a work position and folded into a transport position, characterised in that the flexible portion (18, 19) which forms, in front of each side part (6, 7), the protection means is automatically retractable by winding or sliding when the side parts (6 and 7) of the transverse structure are being placed in the transport position.
A process for the preparation of Pasireotide of formula and its salts having purity greater than 99.0% by HPLC, which comprises the steps of: a) coupling of at least two protected peptide fragments of Formulae and to obtain peptide of formula; b) converting the peptide of formula to peptide of formula; c) cyclizing the peptide of formula, followed by deprotection to obtain Pasireotide; and d) isolation of Pasireotide or its salt; wherein, PG represents protecting groups and PG 1 represents either acid protecting group or solid-supported resin and PG 2 represents base labile protecting group. a) coupling of at least two protected peptide fragments of Formulae and to obtain peptide of formula; b) converting the peptide of formula to peptide of formula; c) cyclizing the peptide of formula, followed by deprotection to obtain Pasireotide; and d) isolation of Pasireotide or its salt; wherein, PG represents protecting groups and PG 1 represents either acid protecting group or solid-supported resin and PG 2 represents base labile protecting group.
An automatic analyzer, comprising: a photomultiplier tube; a board disposed vertically below the photomultiplier tube; and a flow cell disposed vertically below the board, wherein a lower surface of the board has a protrusion portion and/or a recess portion, and an upper surface of the flow cell has a recess portion and/or a protrusion portion, characterized in that the automatic analyzer comprises a plurality of pressing members configured to press the flow cell vertically upward from below in a state in which the recess portion and/or the protrusion portion of the flow cell is fitted to the protrusion portion and/or the recess portion of the board and an interlocking mechanism configured to interlock operations of the plurality of pressing members, wherein the plurality of pressing members are configured to simultaneously press the flow cell by the interlocking mechanism. a photomultiplier tube; a board disposed vertically below the photomultiplier tube; and a flow cell disposed vertically below the board, wherein a lower surface of the board has a protrusion portion and/or a recess portion, and an upper surface of the flow cell has a recess portion and/or a protrusion portion, characterized in that the automatic analyzer comprises a plurality of pressing members configured to press the flow cell vertically upward from below in a state in which the recess portion and/or the protrusion portion of the flow cell is fitted to the protrusion portion and/or the recess portion of the board and an interlocking mechanism configured to interlock operations of the plurality of pressing members, wherein the plurality of pressing members are configured to simultaneously press the flow cell by the interlocking mechanism.
Method for the computer-aided determination of the dependencies of a plurality of modules of a technical system, in particular of a software system, with each of the modules of the system having a known, first run-time, wherein: - the first run-time of each of the modules of the system is extended in each case clearly and differently by the logarithm of a primary number, resulting in a modified system; - the modified system is executed; - a second run-time is measured for each of the modules of the modified system, this second run-time resulting from the modification of the first run-time of each module; and - the analysis of the second run-time of a respective module and the logarithms of the prime numbers are used to determine whether there is a dependency between the respective module and each module modified in the run-time. - the first run-time of each of the modules of the system is extended in each case clearly and differently by the logarithm of a primary number, resulting in a modified system; - the modified system is executed; - a second run-time is measured for each of the modules of the modified system, this second run-time resulting from the modification of the first run-time of each module; and - the analysis of the second run-time of a respective module and the logarithms of the prime numbers are used to determine whether there is a dependency between the respective module and each module modified in the run-time.
A hydrocarbon aromatization process comprising: adding an oxygenate to a hydrocarbon stream to produce an enhanced hydrocarbon stream, or adding an oxygenate to a hydrogen recycle stream to produce an enhanced recycle stream; contacting the enhanced hydrocarbon stream, or the enhanced hydrogen recycle stream, with an aromatization catalyst in a reaction zone, wherein the catalyst comprises a non-acidic zeolite support, a group VIII metal, and one or more halides; and recovering an effluent comprising aromatic hydrocarbons; wherein said oxygenate is selected from water and a chemical compound that forms water under catalytic aromatization conditions, wherein the chemical compound that forms water under catalytic aromatization conditions is selected from oxygen, hydrogen peroxide, alcohols, ketones, esters, ethers, carbon dioxide, aldehydes, carboxylic acids, lactones, ozone, carbon monoxide and combinations thereof; and wherein the non-acidic zeolite support is zeolite L, zeolite X, zeolite Y, zeolite omega, beta, mordenite, or combinations thereof, the Group VIII metal is platinum, and the one or more halides are fluoride, chloride, bromide, iodide, or combinations thereof. adding an oxygenate to a hydrocarbon stream to produce an enhanced hydrocarbon stream, or adding an oxygenate to a hydrogen recycle stream to produce an enhanced recycle stream; contacting the enhanced hydrocarbon stream, or the enhanced hydrogen recycle stream, with an aromatization catalyst in a reaction zone, wherein the catalyst comprises a non-acidic zeolite support, a group VIII metal, and one or more halides; and recovering an effluent comprising aromatic hydrocarbons; wherein said oxygenate is selected from water and a chemical compound that forms water under catalytic aromatization conditions, wherein the chemical compound that forms water under catalytic aromatization conditions is selected from oxygen, hydrogen peroxide, alcohols, ketones, esters, ethers, carbon dioxide, aldehydes, carboxylic acids, lactones, ozone, carbon monoxide and combinations thereof; water and a chemical compound that forms water under catalytic aromatization conditions, wherein the chemical compound that forms water under catalytic aromatization conditions is selected from oxygen, hydrogen peroxide, alcohols, ketones, esters, ethers, carbon dioxide, aldehydes, carboxylic acids, lactones, ozone, carbon monoxide and combinations thereof; and wherein the non-acidic zeolite support is zeolite L, zeolite X, zeolite Y, zeolite omega, beta, mordenite, or combinations thereof, the Group VIII metal is platinum, and the one or more halides are fluoride, chloride, bromide, iodide, or combinations thereof.
Dental implant for insertion into a jaw bone, with a receiving opening for an abutment arranged at the coronal end of the implant, wherein the receiving opening, as viewed from the coronal end, has a cone section with a cone length (k) and an indexing section with an indexing length (f), wherein the indexing length (f) is at least 90% of the cone length (k), in particular more than 1.6mm, wherein the indexing section has a surface in which at least one groove having a groove length (n) and extending outward in the radial direction is arranged, engageable with a cam of an abutment, wherein the surface is at least partially cylindrical and is sized and toleranced to form a guide surface for an abutment inserted as intended, and in that a circumferential platform surface is disposed between the cone section and the indexing section, wherein the groove extends in axial direction up to the platform surface so that an intermediate position is defined when inserting the abutment, characterized in that the groove length (n) extends over at least 70% of the indexing length (f) and wherein, viewed in the apical direction, a threaded section for receiving an abutment screw directly adjoins the indexing section, characterized in that the cone section has an overall cone angle (alpha) of 10° to 18°, and in that a bottom of the groove directed towards the lower end of the implant is chamfered. wherein the receiving opening, as viewed from the coronal end, has a cone section with a cone length (k) and an indexing section with an indexing length (f), wherein the indexing length (f) is at least 90% of the cone length (k), in particular more than 1.6mm, wherein the indexing section has a surface in which at least one groove having a groove length (n) and extending outward in the radial direction is arranged, engageable with a cam of an abutment, wherein the surface is at least partially cylindrical and is sized and toleranced to form a guide surface for an abutment inserted as intended, and in that a circumferential platform surface is disposed between the cone section and the indexing section, wherein the groove extends in axial direction up to the platform surface so that an intermediate position is defined when inserting the abutment, characterized in that the groove length (n) extends over at least 70% of the indexing length (f) and wherein, viewed in the apical direction, a threaded section for receiving an abutment screw directly adjoins the indexing section, characterized in that the cone section has an overall cone angle (alpha) of 10° to 18°, and in that a bottom of the groove directed towards the lower end of the implant is chamfered.
Method for producing ground elements by means of a device with at least two jet tools (8, 9), comprising the method steps: sinking and adjusting the depth of the at least two jet tools (8, 9) such, that an outlet nozzle of a first jet tool and an outlet nozzle of a second jet tool are arranged at least approximately in a plane, extending perpendicular to the longitudinal axes (A1, A2) of the jet tools (8, 9), rotating of the at least two jet tools (8, 9) around their respective longitudinal axis (A1, A2) for injecting an injection medium into the ground, wherein the angular position (φ1, φ2) of at least one of the jet tools (8, 9) is controlled such, that the outlet nozzle of the first jet tool and the outlet nozzle of the second jet tool are simultaneously directed to an area of the ground located between the two jet grouting tools (8, 9). sinking and adjusting the depth of the at least two jet tools (8, 9) such, that an outlet nozzle of a first jet tool and an outlet nozzle of a second jet tool are arranged at least approximately in a plane, extending perpendicular to the longitudinal axes (A1, A2) of the jet tools (8, 9), rotating of the at least two jet tools (8, 9) around their respective longitudinal axis (A1, A2) for injecting an injection medium into the ground, wherein the angular position (φ1, φ2) of at least one of the jet tools (8, 9) is controlled such, that the outlet nozzle of the first jet tool and the outlet nozzle of the second jet tool are simultaneously directed to an area of the ground located between the two jet grouting tools (8, 9).
An epoxy composition comprising: a first component comprising an amine-based curing agent and a first dye, wherein the first component has a first color; and a second component comprising a curable epoxy resin and a second dye, wherein the second component has a second color; wherein the dyes are selected from (i) halochromic dyes and (ii) dyes which undergo a color change when combined with a primary amine.
Needlefelt floor covering, having at least one wear layer, wherein the wear layer includes more than 40% by weight, preferably more than 50% by weight, more preferably 95% by weight, or even entirely polyamide fibres having a water absorption below 2.0% to DIN EN ISO 62 (Method 4).
A therapeutic composition, comprising a histidyl-tRNA synthetase polypeptide of 500-506 amino acids in length that is at least 90% identical to SEQ ID NO:70 and lacks residues 507-509 of SEQ ID NO:1, wherein the HRS polypeptide comprises at least one epitope which specifically cross reacts with an auto-antibody specific for histidyl-tRNA synthetase, or possesses an antiinflammatory activity, and wherein the composition/HRS polypeptide is: a) at least about 95% pure; b) less than about 5% aggregated; and c) substantially endotoxin-free.
A radio base station which communicates with a mobile radio communication station by using code division multiplexing and adaptive modulation control, said radio base communication station comprising: a determining unit for determining a number of codes and a modulation manner for data transmission to the mobile radio communication station, when data is to be transmitted to the mobile radio communication station at an increased rate; and a transmitting unit (105-1 to 105-n) which transmits the data in accordance with the number of codes and the modulation manner determined by the determining unit, characterized in that: the determining unit is arranged to determine to apply a current modulation manner and an increased number of codes that enable the increased rate in transmitting the data in the current modulation manner, in a case where the increased number of codes are available when the data is to be transmitted at the increased rate, and to determine to apply another modulation manner that has a larger number of signal points than the current modulation manner and enables the increased rate in transmitting the data, in a case where the increased number of codes enabling the increased rate are not available when the data is to be transmitted at the increased rate. a determining unit for determining a number of codes and a modulation manner for data transmission to the mobile radio communication station, when data is to be transmitted to the mobile radio communication station at an increased rate; and a transmitting unit (105-1 to 105-n) which transmits the data in accordance with the number of codes and the modulation manner determined by the determining unit, characterized in that: the determining unit is arranged to determine to apply a current modulation manner and an increased number of codes that enable the increased rate in transmitting the data in the current modulation manner, in a case where the increased number of codes are available when the data is to be transmitted at the increased rate, and to determine to apply another modulation manner that has a larger number of signal points than the current modulation manner and enables the increased rate in transmitting the data, in a case where the increased number of codes enabling the increased rate are not available when the data is to be transmitted at the increased rate. the determining unit is arranged to determine to apply a current modulation manner and an increased number of codes that enable the increased rate in transmitting the data in the current modulation manner, in a case where the increased number of codes are available when the data is to be transmitted at the increased rate, and to determine to apply another modulation manner that has a larger number of signal points than the current modulation manner and enables the increased rate in transmitting the data, in a case where the increased number of codes enabling the increased rate are not available when the data is to be transmitted at the increased rate.
A magnetic motor system for driving a loudspeaker voice coil, the permanent magnetic motor system having: a first part and a second part, wherein the first and second parts are spaced apart to define a volume between the first and second parts for receiving a voice coil, the voice coil being movable along a voice coil axis, the first and second parts each having a respective permanent magnet (19, 21), the permanent magnets having respective faces (23, 25) that face towards one another across the volume, the permanent magnets being arranged with opposite poles facing one another across the volume, such that lines of magnetic flux pass across the volume from the face of one permanent magnet to the face of the other permanent magnet, each permanent magnet (19, 21) having first (31a, 33a) and second (31b, 33b) sidewalls that extend in a direction away from the volume, and which form upper and lower faces of the permanent magnet when the system is oriented with the voice coil axis being vertical, wherein the first sidewall (31a, 33a) slopes towards the second sidewall (31b, 33b) in a direction away from the volume, the first and second parts each having a respective guide member (35, 37) for channelling lines of magnetic flux in a return path from one permanent magnet to the other, wherein the guide members (35, 37) are not permanent magnets and wherein the guide members (35, 37) have sloped sidewalls interfacing with the sloped sidewalls (31a, 31b, 33a, 33b) of the respective permanent magnets (19, 21). a first part and a second part, wherein the first and second parts are spaced apart to define a volume between the first and second parts for receiving a voice coil, the voice coil being movable along a voice coil axis, the first and second parts each having a respective permanent magnet (19, 21), the permanent magnets having respective faces (23, 25) that face towards one another across the volume, the permanent magnets being arranged with opposite poles facing one another across the volume, such that lines of magnetic flux pass across the volume from the face of one permanent magnet to the face of the other permanent magnet, each permanent magnet (19, 21) having first (31a, 33a) and second (31b, 33b) sidewalls that extend in a direction away from the volume, and which form upper and lower faces of the permanent magnet when the system is oriented with the voice coil axis being vertical, wherein the first sidewall (31a, 33a) slopes towards the second sidewall (31b, 33b) in a direction away from the volume, the first and second parts each having a respective guide member (35, 37) for channelling lines of magnetic flux in a return path from one permanent magnet to the other, wherein the guide members (35, 37) are not permanent magnets and wherein the guide members (35, 37) have sloped sidewalls interfacing with the sloped sidewalls (31a, 31b, 33a, 33b) of the respective permanent magnets (19, 21).
A method for generating a vector space model for the creation of synthetic voice samples, the vector space model comprising vector space metadata including one or more eigenvalues, one or more eigenvoices, and an average representation, the method comprising: obtaining a training set of audio clips; representing each audio file of the training set of audio clips as a feature vector to form a plurality of feature vectors; generating the average representation as an average representation vector from the plurality of feature vectors; subtracting the average representation vector from the plurality of feature vectors to obtain a mean-centered result; performing singular value decomposition based on the mean-centered result to obtain eigenvoices; selecting the K best eigenvoices from the obtained eigenvoices to determine the one or more eigenvoices and selecting the K best eigenvalues to determine the one or more eigenvalues. obtaining a training set of audio clips; representing each audio file of the training set of audio clips as a feature vector to form a plurality of feature vectors; generating the average representation as an average representation vector from the plurality of feature vectors; subtracting the average representation vector from the plurality of feature vectors to obtain a mean-centered result; performing singular value decomposition based on the mean-centered result to obtain eigenvoices; selecting the K best eigenvoices from the obtained eigenvoices to determine the one or more eigenvoices and selecting the K best eigenvalues to determine the one or more eigenvalues.