mhurhangee/ep-ind-claims huggingface dataset:
An outer ring for a shell-type radial needle bearing that is formed using a metallic material into a single cylindrical shaped member with a bottom, comprising: a cylindrical section having an outer raceway formed around the inner circumferential surface thereof; and a bottom plate section that closes off the opening on one end of the cylindrical section, characterized in that residual compressive stress due to a drawing process exists in the cylindrical section and the bottom plate section, residual compressive stress which has been created by a shot peening is added in the surface layer section on the outer surface side of the cylindrical section and the bottom plate section, while only the residual compressive stress due to the drawing process exists in the surface layer section on the inner surface of the outer ring such that the value of this residual compressive stress is larger on the surface layer section on the outer surface side of the cylindrical section and bottom plate section than in the surface layer section on the inner surface side of the cylindrical section and bottom plate section; and of the surface layer section on the outer surface side of the cylindrical section and the bottom plate section, the size of the residual compressive stress in the surface layer section from the surface to a depth of 0.03 mm is 700 MPa to 1600 MPa. a cylindrical section having an outer raceway formed around the inner circumferential surface thereof; and a bottom plate section that closes off the opening on one end of the cylindrical section, characterized in that residual compressive stress due to a drawing process exists in the cylindrical section and the bottom plate section, residual compressive stress which has been created by a shot peening is added in the surface layer section on the outer surface side of the cylindrical section and the bottom plate section, while only the residual compressive stress due to the drawing process exists in the surface layer section on the inner surface of the outer ring such that the value of this residual compressive stress is larger on the surface layer section on the outer surface side of the cylindrical section and bottom plate section than in the surface layer section on the inner surface side of the cylindrical section and bottom plate section; and of the surface layer section on the outer surface side of the cylindrical section and the bottom plate section, the size of the residual compressive stress in the surface layer section from the surface to a depth of 0.03 mm is 700 MPa to 1600 MPa.
A sheet having a tensile strength of ≥ 600 MPa determined by a tensile test using a micro dumbbell sample and a tension rate of 2 mm/min., comprising: - a carbon fiber and, disposed around a carbon monofilament constituting the carbon fiber, - a fluororesin layer, wherein a fluororesin constituting the fluororesin layer is polyvinylidene fluoride (PVdF). - a carbon fiber and, disposed around a carbon monofilament constituting the carbon fiber, - a fluororesin layer,
A probe electrode pad and storage box combination for use with an electrode probe having a ball-shaped head comprising: a plurality of probe electrode pads, each probe electrode pad comprising a cylindrical absorbent pad and a cylindrical sleeve affixed to said absorbent pad with two double-sided adhesive tapes (24, 26), said cylindrical absorbent pad constructed from felt or cotton, said cylindrical absorbent pad having an outer diameter A and a first central hole, said first central hole having a diameter M, said cylindrical sleeve having an outer diameter B, with outer diameter B being less than diameter A, said cylindrical sleeve provided with a second central hole having a diameter O, with diameter O being greater than diameter M; a storage box provided with a base and a plurality of square walled compartments, each of said square walled compartments storing one of said plurality of probe electrode pads, said plurality of probe electrode pads being held in place with a friction fit with the walls (58, 60) of its respective square walled compartment; and wherein each cylindrical absorbent pad faces the base of its respective square walled compartment and each cylindrical sleeve faces outwardly from its respective square walled compartment provided on the base of the storage box. a plurality of probe electrode pads, each probe electrode pad comprising a cylindrical absorbent pad and a cylindrical sleeve affixed to said absorbent pad with two double-sided adhesive tapes (24, 26), said cylindrical absorbent pad constructed from felt or cotton, said cylindrical absorbent pad having an outer diameter A and a first central hole, said first central hole having a diameter M, said cylindrical sleeve having an outer diameter B, with outer diameter B being less than diameter A, said cylindrical sleeve provided with a second central hole having a diameter O, with diameter O being greater than diameter M; a storage box provided with a base and a plurality of square walled compartments, each of said square walled compartments storing one of said plurality of probe electrode pads, said plurality of probe electrode pads being held in place with a friction fit with the walls (58, 60) of its respective square walled compartment; and wherein each cylindrical absorbent pad faces the base of its respective square walled compartment and each cylindrical sleeve faces outwardly from its respective square walled compartment provided on the base of the storage box.
A method of supporting detection of fraud in a telecommunication network, when a network security function (200, 400) is employed for analysing traffic and terminal activities in the network in view of predefined alert criteria for detecting network and terminal attacks, and a fraud detection function (202, 402) is employed for analysing information on users in the network, including charging information, in view of predefined alert criteria for detecting fraud attacks, the method comprising the following steps executed in a mediating function (204, 404): - monitoring said network security function and fraud detection function, - receiving a first alert from a first one of the network security function and the fraud detection function, said alert indicating that the predefined alert criteria of said first function have been satisfied, and - modifying the alert criteria of the second one of said network security function and fraud detection function, based on the received first alert, wherein the alert criteria are modified by setting a new detection rule for said second function. - monitoring said network security function and fraud detection function, - receiving a first alert from a first one of the network security function and the fraud detection function, said alert indicating that the predefined alert criteria of said first function have been satisfied, and - modifying the alert criteria of the second one of said network security function and fraud detection function, based on the received first alert, wherein the alert criteria are modified by setting a new detection rule for said second function.
A method for wireless communications by an apparatus, comprising: outputting a first frame for transmission to another apparatus at a first time; obtaining, at a second time, a second frame transmitted by the other apparatus after the transmission of the first frame; and generating a third frame for transmission to the other apparatus via the transmit interface, the third frame including information indicating a difference between the first time and the second time and an indication of at least one of an orientation of departure of the first frame or an orientation of arrival of the second frame, wherein the third frame is generated based on a capability of the other apparatus to understand the indication of at least one of the orientation of departure of the first frame or the orientation of arrival of the second frame; and providing an indication in the first frame or the third frame, based on the capability, to the other apparatus that the third frame includes or will include the indication of at least one of the orientation of departure of the first frame or the orientation of arrival of the second frame. outputting a first frame for transmission to another apparatus at a first time; obtaining, at a second time, a second frame transmitted by the other apparatus after the transmission of the first frame; and generating a third frame for transmission to the other apparatus via the transmit interface, the third frame including information indicating a difference between the first time and the second time and an indication of at least one of an orientation of departure of the first frame or an orientation of arrival of the second frame, wherein the third frame is generated based on a capability of the other apparatus to understand the indication of at least one of the orientation of departure of the first frame or the orientation of arrival of the second frame; and providing an indication in the first frame or the third frame, based on the capability, to the other apparatus that the third frame includes or will include the indication of at least one of the orientation of departure of the first frame or the orientation of arrival of the second frame.
Method for reprocessing waste substantially containing polyalkylene terephthalate, in particular polyethylene terephthalate and/or polybutylene terephthalate, in a continuous process by means of depolymerisation, a preferably solid alkali hydroxide and/or alkaline earth hydroxide, in particular sodium hydroxide, being added to the waste to produce a reaction mixture, characterised in that an alkylene glycol is additionally added to the reaction mixture as a starting material, the alkylene glycol being an alkylene glycol that can be produced as a product of the desired depolymerisation, in particular monoethylene glycol, and no further reactive constituents being added to the reaction mixture, a twin-screw extruder being used for conveying, the screws preferably being rotated in the same direction.
A combination product, the combination product comprising a limonoid compound or a pharmaceutically acceptable salt thereof, and a biguanide compound or a pharmaceutically acceptable salt thereof, wherein the biguanide compound is metformin, and the limonoid compound is selected from the group consisting of limonin, isolimonic acid, limonin 17-β-D-glucopyranoside, isolimonic acid 17-β-D-glucopyranoside, obacunone, obacunone 17-β-D-glucopyranoside, ichangin, ichangensin, ichangin 17-β-D-glucopyranoside, nomilin, nomilin 17-β-D-glucopyranoside, deacetylnomilin, nomilinic acid, deacetylnomilin 17-β-D-glucopyranoside deacetylnomilinic acid, nomilinic acid 17-β-D-glucopyranoside, and isoobacunoic acid, wherein the biguanide compound has an amount of 50 mg to 2000 mg and the limonoid compound has an amount of 50 mg to 2000 mg.
A hearing prosthesis, comprising: a stimulation device configured to implement a first functionality of the hearing prosthesis corresponding to the providing of sensory supplement to a recipient to evoke a sensory percept, wherein the hearing prosthesis is configured to implement a secondary functionality different from the first functionality, and the hearing prosthesis is configured to migrate the second functionality to a device remote from the sensory supplement medical device, characterized in that the hearing prosthesis is configured to automatically migrate the second functionality to the device remote from the hearing prosthesis upon both of: a determination that a power storage device of the hearing prosthesis has achieved a predetermined status; and the migration of the second functionality will prolong the first functionality relative to that which would be the case in the absence of the migration of the second functionality. a stimulation device configured to implement a first functionality of the hearing prosthesis corresponding to the providing of sensory supplement to a recipient to evoke a sensory percept, wherein the hearing prosthesis is configured to implement a secondary functionality different from the first functionality, and the hearing prosthesis is configured to migrate the second functionality to a device remote from the sensory supplement medical device, characterized in that the hearing prosthesis is configured to automatically migrate the second functionality to the device remote from the hearing prosthesis upon both of: a determination that a power storage device of the hearing prosthesis has achieved a predetermined status; and the migration of the second functionality will prolong the first functionality relative to that which would be the case in the absence of the migration of the second functionality. a determination that a power storage device of the hearing prosthesis has achieved a predetermined status; and the migration of the second functionality will prolong the first functionality relative to that which would be the case in the absence of the migration of the second functionality.
A spatial audio processor for providing spatial parameters (102, φ(k, n), Ψ(k, n)) based on an acoustic input signal, the spatial audio processor comprising: a signal characteristics determiner (108, 308, 408, 508, 608, 808, 908) configured to determine a signal characteristic (110, 710, 810) of the acoustic input signal; and a controllable parameter estimator (106, 306, 406, 506, 606, 606a, 606b, 806, 906) for calculating the spatial parameters (102, φ(k, n), Ψ(k, n)) for the acoustic input signal in accordance with a variable spatial parameter calculation rule; wherein the controllable parameter estimator (106, 306, 406, 506, 606, 606a, 606b, 806, 906) is configured to modify the variable spatial parameter calculation rule in accordance with the determined signal characteristic (110, 710, 810); wherein the signal characteristics determiner is configured to determine a stationarity interval of the acoustic input signal and the controllable parameter estimator is configured to modify the variable spatial parameter calculation rule in accordance with the determined stationarity interval, so that an averaging period for calculating the spatial parameters (102, Ψ(k, n), φ(k, n)) is comparatively longer for a comparatively longer stationarity interval and is comparatively shorter for a comparatively shorter stationarity interval; or wherein the controllable parameter estimator (406, 506, 906) is configured to select one spatial parameter calculation rule (410, 412) out of a plurality of spatial parameter calculation rules (410, 412) for calculating the spatial parameters (102, Ψ(k, n), φ(k, n)), in dependence on the determined signal characteristic. a signal characteristics determiner (108, 308, 408, 508, 608, 808, 908) configured to determine a signal characteristic (110, 710, 810) of the acoustic input signal; and a controllable parameter estimator (106, 306, 406, 506, 606, 606a, 606b, 806, 906) for calculating the spatial parameters (102, φ(k, n), Ψ(k, n)) for the acoustic input signal in accordance with a variable spatial parameter calculation rule; wherein the controllable parameter estimator (106, 306, 406, 506, 606, 606a, 606b, 806, 906) is configured to modify the variable spatial parameter calculation rule in accordance with the determined signal characteristic (110, 710, 810); wherein the signal characteristics determiner is configured to determine a stationarity interval of the acoustic input signal and the controllable parameter estimator is configured to modify the variable spatial parameter calculation rule in accordance with the determined stationarity interval, so that an averaging period for calculating the spatial parameters (102, Ψ(k, n), φ(k, n)) is comparatively longer for a comparatively longer stationarity interval and is comparatively shorter for a comparatively shorter stationarity interval; or wherein the controllable parameter estimator (406, 506, 906) is configured to select one spatial parameter calculation rule (410, 412) out of a plurality of spatial parameter calculation rules (410, 412) for calculating the spatial parameters (102, Ψ(k, n), φ(k, n)), in dependence on the determined signal characteristic.
A container for a foodstuff or beverage preparation machine, the container for containing beverage or foodstuff preparation material and comprising a code encoding preparation information, the code comprising a data sequence having a plurality of marker locations, whereby said marker locations either comprise or do not comprise a marker as a variable to at least partially encode the preparation information therein, with adjacent marker locations separated by a distance of Δx; characterised in that the code further comprises: a calibration sequence having two adjacent markers with a distance of X1 therebetween, whereby the distance Δx between adjacent marker locations of the data sequence is related to the distance X1 of the calibration sequence; and a locator sequence to enable location of the data sequence or calibration sequence, the locator sequence comprising two adjacent markers, whereby a distance X4 therebetween is distinct from the distance X1 and is distinct from the distance Δx. a calibration sequence having two adjacent markers with a distance of X1 therebetween, whereby the distance Δx between adjacent marker locations of the data sequence is related to the distance X1 of the calibration sequence; and a locator sequence to enable location of the data sequence or calibration sequence, the locator sequence comprising two adjacent markers, whereby a distance X4 therebetween is distinct from the distance X1 and is distinct from the distance Δx.
A method for deriving extrinsic camera parameters of at least one vehicle camera, comprising - providing one or more calibration markers on a ground surface, - storing pre-determined shape parameters corresponding to the one or more calibration markers in a computer readable memory of the vehicle, - receiving image data from the at least one vehicle camera, image data comprising a video sequence, the video sequence comprising calibration marker image data, - detecting marker boundaries in the image data, - matching the detected marker boundaries to the pre-determined shape parameters, - identifying one or more calibration markers, - tracking the one or more identified calibration markers in the video sequence while the at least one vehicle camera is moving, - deriving at least one extrinsic parameter of the at least one vehicle camera using the positions of the one or more identified calibration markers in the video sequence. - providing one or more calibration markers on a ground surface, - storing pre-determined shape parameters corresponding to the one or more calibration markers in a computer readable memory of the vehicle, - receiving image data from the at least one vehicle camera, image data comprising a video sequence, - detecting marker boundaries in the image data, - matching the detected marker boundaries to the pre-determined shape parameters, - identifying one or more calibration markers, - tracking the one or more identified calibration markers in the video sequence while the at least one vehicle camera is moving, - deriving at least one extrinsic parameter of the at least one vehicle camera using the positions of the one or more identified calibration markers in the video sequence.
A cation exchange chromatography process for purifying a peptide from a mixture comprising said peptide and related peptidic impurities consisting of a truncated form, extended form, deamidated form, incorrectly folded form, a form with undesired glycosylation, form lacking γ -carboxy glutamic acid, and mixtures thereof as long as they elute before the peptide, said related impurities having a different local or overall net charge compared to said peptide, said process comprising the steps of: a) eluting said related peptidic impurities of said mixture in a solution comprising an organic modifier selected from C1-6-alkanol, C1-6-alkenol or C1-6-alkynol, urea, guanidine, guanidine-HCl, C1-6-alkanoic acid (including acetic acid), C2-6-glycol, or C3-7-polyalcohol including sugars, and mixtures thereof; water, optionally a salt component, and optionally a buffer; at a linear or step gradient or isocratically in salt component; and at pH-values optionally maintained with a buffer in the range where said peptide has a positive local or overall net charge, and said related peptidic impurities have a local or overall positive net charge which is lower than the positive net charge of said peptide, so as to remove said related peptidic impurities; and b) subsequently, eluting said peptide by a step or linear change to an aqueous solvent free of organic modifier, optionally with a salt component, at the same or higher pH-values optionally maintained with a buffer. a) eluting said related peptidic impurities of said mixture in a solution comprising an organic modifier selected from C1-6-alkanol, C1-6-alkenol or C1-6-alkynol, urea, guanidine, guanidine-HCl, C1-6-alkanoic acid (including acetic acid), C2-6-glycol, or C3-7-polyalcohol including sugars, and mixtures thereof; water, optionally a salt component, and optionally a buffer; at a linear or step gradient or isocratically in salt component; and at pH-values optionally maintained with a buffer in the range where said peptide has a positive local or overall net charge, and said related peptidic impurities have a local or overall positive net charge which is lower than the positive net charge of said peptide, so as to remove said related peptidic impurities; and b) subsequently, eluting said peptide by a step or linear change to an aqueous solvent free of organic modifier, optionally with a salt component, at the same or higher pH-values optionally
A communication method, applied to a terminal device, comprising: acquiring first data; and determining a processing mode of the first data according to data bearing capacity of a first transmission resource, wherein the first transmission resource is a configured grant, CG, resource, characterized in that the data bearing capacity is a transport block size of the first transmission resource, wherein determining the processing mode of the first data according to the data bearing capacity of the first transmission resource comprises: in response to the data bearing capacity of the first transmission resource being equal to a size of the first data, transmitting third data on the first transmission resource, and the third data comprises all of the first data. acquiring first data; and determining a processing mode of the first data according to data bearing capacity of a first transmission resource, wherein the first transmission resource is a configured grant, CG, resource, characterized in that the data bearing capacity is a transport block size of the first transmission resource, wherein determining the processing mode of the first data according to the data bearing capacity of the first transmission resource comprises: in response to the data bearing capacity of the first transmission resource being equal to a size of the first data, transmitting third data on the first transmission resource, and the third data comprises all of the first data.