mhurhangee/ep-ind-claims huggingface dataset:
A curved-part forming method for obtaining a curved part by performing forming on a blank (1,2) formed of a single metal plate, the method comprising: a bending process in which the blank (1, 2) having a curved outline corresponding to a curve of the curved part in a longitudinal direction is bent into a sectional shape corresponding to a division portion (10, 20) of a sectional shape of the curved part; and a joining process in which two or more of said division portions (10, 20) obtained by the bending process are joined together, characterized in that: prior to the bending process, a folding line is formed in the blank (1, 2); the folding line is formed by V groove and a depth of the V groove is 20% or less of the thickness of the single metal plate; and the single metal plate is a steel sheet having a tensile strength of 590 MPa or more. a bending process in which the blank (1, 2) having a curved outline corresponding to a curve of the curved part in a longitudinal direction is bent into a sectional shape corresponding to a division portion (10, 20) of a sectional shape of the curved part; and a joining process in which two or more of said division portions (10, 20) obtained by the bending process are joined together, characterized in that: prior to the bending process, a folding line is formed in the blank (1, 2); the folding line is formed by V groove and a depth of the V groove is 20% or less of the thickness of the single metal plate; and the single metal plate is a steel sheet having a tensile strength of 590 MPa or more. prior to the bending process, a folding line is formed in the blank (1, 2); the folding line is formed by V groove and a depth of the V groove is 20% or less of the thickness of the single metal plate; and the single metal plate is a steel sheet having a tensile strength of 590 MPa or more.
A pharmaceutical composition comprising: a single-chain variable antibody fragment, wherein said single-chain variable antibody fragment consists of the amino acid sequence of SEQ ID NO:18; and a pharmaceutically acceptable non-toxic carrier, diluent and/or stabilizer. a single-chain variable antibody fragment, wherein said single-chain variable antibody fragment consists of the amino acid sequence of SEQ ID NO:18; and a pharmaceutically acceptable non-toxic carrier, diluent and/or stabilizer.
Process for sorting and/or recycling and/or formulation control of materials by luminescence, wherein at least one luminescing substance is introduced into the material and/or applied to the material and the luminescence behaviour of the substance is analyzed after excitation using radiation, wherein during or after one or more time intervals the intensity for one or more emission wavelengths is determined and the emission intensities for identical emission wavelengths or different emission wavelengths are used to form intensity ratios.
An antibody or an antigen binding fragment thereof that specifically binds to and neutralizes human TGFβ1, TGFβ2, and TGFβ3 for use for treating osteogenesis imperfecta in a subject in need thereof.
Method for operating a headlamp of a motor vehicle which comprises a multiplicity of individually controllable headlamp pixels, is designed as an adaptive full beam for cutting out portions of the illuminated region that blind other road users and is controlled by means of control signals which are determined from image data and serve to illuminate a projection surface, wherein the image data describe at least one image to be produced on the projection surface by the headlamp, wherein the image data are transferred wirelessly to the motor vehicle from portable data communications equipment, wherein the control signals are adapted in such a way on the basis of a position and/or an alignment of the projection surface in relation to sensor data describing the motor vehicle from a sensor device detecting the surround of the motor vehicle that an expected distortion of the image when the projection surface is illuminated by the headlamp is compensated for, wherein the sensor device comprises a camera installed in the interior of the motor vehicle and a radar sensor arranged at the front of the motor vehicle, the sensor information of which are fused to form sensor data which describe the surround of the motor vehicle and are provided for the image processing device by an evaluation unit.
Apparatus for producing rod-shaped products of the tobacco processing industry, comprising - a conveying device for conveying an endless rod, and - a cutting device for cutting the rod into rod-shaped products having a predetermined length, wherein - the cutting device includes a rotatably drivable knife carrier drum comprising at least one radially protruding replaceable cutting knife (3, 4), and - a cover allocated to the cutting device on a portion of the circumference of the knife carrier drum is provided, characterized in that - the cutting knife(s) (3, 4) is or are locked or released by a locking device in the knife carrier drum, which locking device can be actuated by the cover. - a conveying device for conveying an endless rod, and - a cutting device for cutting the rod into rod-shaped products having a predetermined length, wherein - the cutting device includes a rotatably drivable knife carrier drum comprising at least one radially protruding replaceable cutting knife (3, 4), and - a cover allocated to the cutting device on a portion of the circumference of the knife carrier drum is provided, characterized in that - the cutting knife(s) (3, 4) is or are locked or released by a locking device in the knife carrier drum, which locking device can be actuated by the cover.
Method of anaerobic treatment of an organic waste stream comprising the steps of: - feeding the organic waste stream to an anaerobic reactor, - separating a reactor mixture originating from the anaerobic reactor in a first separating unit, having a first outlet and a second outlet, the first separating unit separating the mixture into a first fraction (7") containing between 50 % and 80 % of the solids by weight and a second fraction, the first fraction (7") exiting the first separating unit through the first outlet, and the second fraction exiting the first separating unit through the second outlet, wherein the first separating unit is a pre-separating unit that is a dynamic filter based on centrifugal forces or a dissolved gas flotation unit, without the addition of flocculants and/or coagulants, - feeding the second fraction from the first separating unit into a Dissolved Gas Flotation unit, wherein at the second outlet of the first separating unit a flocculant and/or coagulant is added to the second fraction in a dosage of between 1-12 g flocculant/kg dry solids, - separating in the DGF unit the second fraction into a sludge fraction and a liquid fraction, - feeding the first fraction (7") originating from the first separating unit and the sludge fraction originating from the DGF unit, via a further separator unit, back into the anaerobic reactor, wherein the further separator unit removes liquid from the stream that is returned to the anaerobic reactor to 4-30 % total suspended solids. - feeding the organic waste stream to an anaerobic reactor, - separating a reactor mixture originating from the anaerobic reactor in a first separating unit, having a first outlet and a second outlet, the first separating unit separating the mixture into a first fraction (7") containing between 50 % and 80 % of the solids by weight and a second fraction, the first fraction (7") exiting the first separating unit through the first outlet, and the second fraction exiting the first separating unit through the second outlet, wherein the first separating unit is a pre-separating unit that is a dynamic filter based on centrifugal forces or a dissolved gas flotation unit, without the addition of flocculants and/or coagulants, - feeding the second fraction from the first separating unit into a Dissolved Gas Flotation unit, wherein at the second outlet of the first separating unit a flocculant and/or coagulant is added to the second fraction in a dosage of between 1-12 g flocculant/kg dry solids, - separating in the DGF unit the second fraction into a sludge fraction and a liquid fraction, - feeding the first fraction (7") originating from the first separating unit and the sludge fraction originating from the DGF unit, via a further separator unit, back into the anaerobic reactor, wherein the further separator unit removes liquid from the stream that is returned to the anaerobic reactor to 4-30 % total suspended solids.
An attenuated, avirulent Mycoplasma bovis bacterium strain, wherein the bacterium is passaged more than 110 times, wherein the attenuated, avirulent Mycoplasma bovis strain is selected from the group consisting of: the attenuated Mycoplasma bovis bacteria strain deposited with the ATCC under accession number PTA-9666 or PTA-9667, or any attenuated descendant Mycoplasma bovis bacteria strains thereof capable to reduce the mortality in a group of animals of at least 83% as compared to a non-vaccinated control group of animals.
A method of manufacturing (2S,3R)-N-(2-((3-pyridinyl)methyl)-1-azabicyclo[2.2.2]oct-3-yl)benzofuran-2-carboxamide or a pharmaceutically acceptable salt thereof which method comprises dynamic resolution of 2-((3-pyridinyl)methyl)-1-azabicyclo[2.2.2]oct-3-one, followed by stereoselective reductive amination of the resolved ketone.
Signal quality sensor (100, 200) for determining the signal quality (101, 201, 301) in a TV set with an RF input for receiving a source signal and an interference filter, the signal quality sensor (100, 200) comprising: a bit error detector (102, 202, 302) configured to detect a bit error rate (104, 204, 304) in a decoded source signal (103, 203, 303) for a selected channel, a quality determination unit (106, 206, 306) configured to receive a level (107, 207, 307) of interference signals in the source signal and values (108, 208, 308) of filter coefficients of an interference filter for the source signals, wherein the quality determination unit (106, 206, 306) is configured to determine the signal quality (101, 201, 301) to be insufficient if the filter coefficients are set to a maximum value (109, 209, 309) and the bit error rate (104, 204, 304) is above a predetermined threshold value (110, 210, 310) characterized by comprising a device database (215, 315) configured to store operating frequencies (216, 316) for devices (217, 317) capable of emitting RF signals, wherein the quality determination unit (106, 206, 306) is configured to determine based on the frequency of the interference signal and the operating frequencies (216, 316) stored in the database which devices (217, 317) emit the interference signals, and wherein the quality determination unit (106, 206, 306) is configured to output information about the devices (217, 317) that emit the interference signals on a display of the TV set. a bit error detector (102, 202, 302) configured to detect a bit error rate (104, 204, 304) in a decoded source signal (103, 203, 303) for a selected channel, a quality determination unit (106, 206, 306) configured to receive a level (107, 207, 307) of interference signals in the source signal and values (108, 208, 308) of filter coefficients of an interference filter for the source signals, wherein the quality determination unit (106, 206, 306) is configured to determine the signal quality (101, 201, 301) to be insufficient if the filter coefficients are set to a maximum value (109, 209, 309) and the bit error rate (104, 204, 304) is above a predetermined threshold value (110, 210, 310) comprising a device database (215, 315) configured to store operating frequencies (216, 316) for devices (217, 317) capable of emitting RF signals, wherein the quality determination unit (106, 206, 306) is configured to determine based on the frequency of the interference signal and the operating frequencies (216, 316) stored in the database which devices (217, 317) emit the interference signals, and wherein the quality determination unit (106, 206, 306) is configured to output information about the devices (217, 317) that emit the interference signals on a display of the TV set.
A printing method for low melting-point material, used by a 3D printer having a nozzle and a printing platform, the printing method comprising: a) controlling the nozzle to move to a printing position upon the printing platform corresponding to an internal-contour of a printing-layer; b) printing the internal-contour; c) controlling the nozzle to move to other printing position upon the printing platform corresponding to an exterior-contour of the printing-layer after the step b; d) printing the exterior-contour characterized by further comprising the following steps: e) controlling the nozzle to move inwardly and away from the exterior-contour by a threshold range after the step d, whereby the threshold range is a safety range to prevent the exterior-contour from being affected by the temperature of the nozzle; and f) changing a related position between the nozzle and the printing platform upon a Z-axis. a) controlling the nozzle to move to a printing position upon the printing platform corresponding to an internal-contour of a printing-layer; b) printing the internal-contour; c) controlling the nozzle to move to other printing position upon the printing platform corresponding to an exterior-contour of the printing-layer after the step b; d) printing the exterior-contour characterized by further comprising the following steps: e) controlling the nozzle to move inwardly and away from the exterior-contour by a threshold range after the step d, whereby the threshold range is a safety range to prevent the exterior-contour from being affected by the temperature of the nozzle; and f) changing a related position between the nozzle and the printing platform upon a Z-axis.
A multi-feed multi-band multiple input multiple output, MIMO, antenna system comprising: at least a first antenna and a second antenna orthogonally positioned with respect to each other, wherein the first antenna is configured to operate over a first frequency range and the second antenna is configured to operate over a second frequency range; at least a first resonator (212, 216, 303) and a second resonator (211, 215, 403) coupled with the first antenna and the second antenna respectively, wherein the first resonator is configured to filter out the second frequency range and the second resonator is configured to filter out the first frequency range; and wherein the first antenna is further coupled with a third resonator and the second antenna is further coupled with a fourth resonator, and wherein the third resonator and the fourth resonator are configured to decrease mutual coupling in the first frequency range and the second frequency range, respectively. at least a first antenna and a second antenna orthogonally positioned with respect to each other, wherein the first antenna is configured to operate over a first frequency range and the second antenna is configured to operate over a second frequency range; at least a first resonator (212, 216, 303) and a second resonator (211, 215, 403) coupled with the first antenna and the second antenna respectively, wherein the first resonator is configured to filter out the second frequency range and the second resonator is configured to filter out the first frequency range; and wherein the first antenna is further coupled with a third resonator and the second antenna is further coupled with a fourth resonator, and wherein the third resonator and the fourth resonator are configured to decrease mutual coupling in the first frequency range and the second frequency range, respectively.
A method of producing a localised concentration of energy comprising: creating at least one shockwave (8; 108; 208; 308; 408; 508; 908; 1008; 1208; 1308; 1408) propagating through a non-gaseous medium (2; 102; 202; 302; 402; 502; 902; 1002; 1202; 1302; 1402) so as first to be incident upon a focusing pocket of fluid (4; 104; 204; 304; 404; 504; 904; 1004; 1204; 1304; 1404) within the medium (2; 102; 202; 302; 402; 502; 902; 1002; 1202; 1302; 1402); wherein the focusing pocket of fluid (4; 104; 204; 304; 404; 504; 904; 1004; 1204; 1304; 1404) is positioned relative to a differently sized target pocket of gas (6; 106; 206; 306; 406; 506; 706; 906; 1006; 1206; 1306; 1406) within the medium (2; 102; 202; 302; 402; 502; 902; 1002; 1202; 1302; 1402), and is arranged to shield the target pocket of gas (6; 106; 206; 306; 406; 506; 706; 906; 1006; 1206; 1306; 1406) from the initial shockwave (8; 108; 208; 308; 408; 508; 908; 1008; 1208; 1308; 1408), such that the incidence of the shockwave (8; 108; 208; 308; 408; 508; 908; 1008; 1208; 1308; 1408) on the focusing pocket of fluid (4; 104; 204; 304; 404; 504; 904; 1004; 1204; 1304; 1404) concentrates the intensity of a shockwave subsequently incident upon the target pocket of gas (6; 106; 206; 306; 406; 506; 706; 906; 1006; 1206; 1306; 1406). creating at least one shockwave (8; 108; 208; 308; 408; 508; 908; 1008; 1208; 1308; 1408) propagating through a non-gaseous medium (2; 102; 202; 302; 402; 502; 902; 1002; 1202; 1302; 1402) so as first to be incident upon a focusing pocket of fluid (4; 104; 204; 304; 404; 504; 904; 1004; 1204; 1304; 1404) within the medium (2; 102; 202; 302; 402; 502; 902; 1002; 1202; 1302; 1402); wherein the focusing pocket of fluid (4; 104; 204; 304; 404; 504; 904; 1004; 1204; 1304; 1404) is positioned relative to a differently sized target pocket of gas (6; 106; 206; 306; 406; 506; 706; 906; 1006; 1206; 1306; 1406) within the medium (2; 102; 202; 302; 402; 502; 902; 1002; 1202; 1302; 1402), and is arranged to shield the target pocket of gas (6; 106; 206; 306; 406; 506; 706; 906; 1006; 1206; 1306; 1406) from the initial shockwave (8; 108; 208; 308; 408; 508; 908; 1008; 1208; 1308; 1408), such that the incidence of the shockwave (8; 108; 208; 308; 408; 508; 908; 1008; 1208; 1308; 1408) on the focusing pocket of fluid (4; 104; 204; 304; 404; 504; 904; 1004; 1204; 1304; 1404) concentrates the intensity of a shockwave subsequently incident upon the target pocket of gas (6; 106; 206; 306; 406; 506; 706; 906; 1006; 1206; 1306; 1406).
A mobile concrete pump with a carrying structure placed directly or indirectly via a mounting frame onto a running gear of a motor truck chassis, which accommodates functional units forming a supporting device and a distributor mast, the distributor mast being mounted rotatably on a mast trestle which comprises a shell inserted into the carrying structure and equipped as a rotary bearing for the distributor mast, and the supporting device comprising two mutually intersecting supporting leg boxes (54, 56) integrated in the carrying structure and open diagonally forward and in each case a supporting leg arranged telescopically in the supporting leg boxes (54, 56), characterized in that the carrying structure has an upwardly open polygonal orifice oriented parallel to the axis of rotation of the distributor mast, in that the shell of the mast trestle has a polygonal contour adapted to the polygonal orifice and is inserted into the polygonal orifice of the carrying structure, and in that the shell is oriented with two of its side faces parallel to a side wall of one of the supporting leg boxes (54, 56) in each case.
A perovskite film, comprising a mixture of: a perovskite compound represented by a composition formula ABX 3, formed of an organic cation A, a metal cation B and a halide anion X, and a compound Z having no perovskite structure, characterized by the compound Z having a group having a structure represented by formula below: wherein R 2 is an alkyl group having 1 to 15 carbon atoms, a halogenated alkyl group having 1 to 15 carbon atoms, an aryl group having 6 to 15 carbon atoms, a halogenated aryl group having 6 to 15 carbon atoms, or a halogen atom, and n is 0 or 1. a perovskite compound represented by a composition formula ABX 3, formed of an organic cation A, a metal cation B and a halide anion X, and a compound Z having no perovskite structure, characterized by the compound Z having a group having a structure represented by formula below: wherein R 2 is an alkyl group having 1 to 15 carbon atoms, a halogenated alkyl group having 1 to 15 carbon atoms, an aryl group having 6 to 15 carbon atoms, a halogenated aryl group having 6 to 15 carbon atoms, or a halogen atom, and n is 0 or 1.
Transfer paper for sublimation printing, comprising a fibrous substrate and an ink-receiving layer, wherein the ink-receiving layer comprises: a cationic inorganic component and / or a cationic organic component in an amount of from 10 to 90 dry wt.%, optionally a filler in an amount of up to 75 dry wt.%, a hydrophilic binder in an amount of from 5 to 50 dry wt.%, and a hydrophobic binder in an amount of from 5 to 50 dry wt.%, wherein the amounts in dry wt.% are based on the total dry weight of the ink-receiving layer. a cationic inorganic component and / or a cationic organic component in an amount of from 10 to 90 dry wt.%, optionally a filler in an amount of up to 75 dry wt.%, a hydrophilic binder in an amount of from 5 to 50 dry wt.%, and a hydrophobic binder in an amount of from 5 to 50 dry wt.%, wherein the amounts in dry wt.% are based on the total dry weight of the ink-receiving layer.
A mobile communication terminal that simultaneously transmits data through a plurality of channels, comprising: a transmission power controlling unit (110, 120, 140) adapted to perform transmission power control such that a sum of transmission powers is a target value; an average transmission power calculating unit (110, 120, 140, S10, S21, S22) adapted to calculate a sum of average transmission powers of the respective channels in a monitoring period; and a transmission power suppressing unit (110, 120, 140, 150, S30, S40, S50) adapted to perform reduction control of the transmission powers, characterized in that a control period is set so as to include the monitoring period and a transmission power suppression period following the monitoring period, and the transmission power suppressing unit decides the target values for the transmission power suppression period to reduce, when the sum of the average transmission powers of the respective channels in the monitoring period is equal to or more than a threshold value of the sum of the average transmission powers of the respective channels, the transmission powers of the respective channels in the transmission power suppression period such that the average value of the sum of the transmission powers of the respective channels in the control period is equal to or less than the threshold value. a transmission power controlling unit (110, 120, 140) adapted to perform transmission power control such that a sum of transmission powers is a target value; an average transmission power calculating unit (110, 120, 140, S10, S21, S22) adapted to calculate a sum of average transmission powers of the respective channels in a monitoring period; and a transmission power suppressing unit (110, 120, 140, 150, S30, S40, S50) adapted to perform reduction control of the transmission powers, characterized in that a control period is set so as to include the monitoring period and a transmission power suppression period following the monitoring period, and the transmission power suppressing unit decides the target values for the transmission power suppression period to reduce, when the sum of the average transmission powers of the respective channels in the monitoring period is equal to or more than a threshold value of the sum of the average transmission powers of the respective channels, the transmission powers of the respective channels in the transmission power suppression period such that the average value of the sum of the transmission powers of the respective channels in the control period is equal to or less than the threshold value.