mhurhangee/ep-ind-claims huggingface dataset:
A method for inputting data, comprising: Acquiring, by a virtual machine manager, input data; Performing, by the virtual machine manager, encryption processing on the input data according to an encryption rule of a security connection to obtain encrypted data, wherein the security connection refers to a connection that is established between an application interface and a server and is used for data transmission, and the encryption rule is negotiated during the establishment of the security connection; and Sending, by the virtual machine manager, the encrypted data to the server over the security connection by using the application interface; wherein the acquiring, by a virtual machine manager, input data comprises: controlling, by the virtual machine manager, a physical input unit; acquiring, by the virtual machine manager, the input data by using the physical input unit, wherein the input data is buffered in an input buffer; characterized in that after the acquiring, by the virtual machine manager, the input data by using the physical input unit, the method further comprises: clearing, by the virtual machine manager, the input buffer. Acquiring, by a virtual machine manager, input data; Performing, by the virtual machine manager, encryption processing on the input data according to an encryption rule of a security connection to obtain encrypted data, wherein the security connection refers to a connection that is established between an application interface and a server and is used for data transmission, and the encryption rule is negotiated during the establishment of the security connection; and Sending, by the virtual machine manager, the encrypted data to the server over the security connection by using the application interface; wherein the acquiring, by a virtual machine manager, input data comprises: controlling, by the virtual machine manager, a physical input unit; acquiring, by the virtual machine manager, the input data by using the physical input unit, wherein the input data is buffered in an input buffer; characterized in that after the acquiring, by the virtual machine manager, the input data by using the physical input unit, the method further comprises: clearing, by the virtual machine manager, the input buffer. controlling, by the virtual machine manager, a physical input unit; acquiring, by the virtual machine manager, the input data by using the physical input unit, wherein the input data is buffered in an input buffer; characterized in that after the acquiring, by the virtual machine manager, the input data by using the physical input unit, the method further comprises: clearing, by the virtual machine manager, the input buffer. clearing, by the virtual machine manager, the input buffer.
A method of improving the uniformity of a tire, comprising: accessing uniformity measurements of a uniformity parameter obtained for a set of a plurality of test tires, the uniformity measurement for each test tire obtained for a plurality of revolutions of the test tire in a uniformity measurement machine while the test tire is loaded with a road wheel; determining data indicative of a variance in the uniformity measurements obtained for the set of test tires by: determining a first variance of uniformity measurements associated with a first revolution in the plurality of revolutions for the set of test tires; determining a second variance of the uniformity measurements associated with the second revolution in the plurality of revolutions for the set of test tires; and determining the data indicative of an independent variance based at least in part on the first variance and the second variance; estimating one or more parameters of a measurement process harmonic associated with the road wheel based at least in part on the data indicative of the variance; and modifying tire manufacture based at least in part on the measurement process harmonic associated with the road wheel. accessing uniformity measurements of a uniformity parameter obtained for a set of a plurality of test tires, the uniformity measurement for each test tire obtained for a plurality of revolutions of the test tire in a uniformity measurement machine while the test tire is loaded with a road wheel; determining data indicative of a variance in the uniformity measurements obtained for the set of test tires by: determining a first variance of uniformity measurements associated with a first revolution in the plurality of revolutions for the set of test tires; determining a second variance of the uniformity measurements associated with the second revolution in the plurality of revolutions for the set of test tires; and determining the data indicative of an independent variance based at least in part on the first variance and the second variance; determining a first variance of uniformity measurements associated with a first revolution in the plurality of revolutions for the set of test tires; determining a second variance of the uniformity measurements associated with the second revolution in the plurality of revolutions for the set of test tires; and determining the data indicative of an independent variance based at least in part on the first variance and the second variance; estimating one or more parameters of a measurement process harmonic associated with the road wheel based at least in part on the data indicative of the variance; and modifying tire manufacture based at least in part on the measurement process harmonic associated with the road wheel.
A display apparatus comprising: a light-emitting layer (413, 612); a pair of electrodes (411,414;601,613) sandwiching the light-emitting layer; a transistor (406,408,409,410;606,607,608,609) with an active layer (409,608) and with a source electrode (410,609) and a drain electrode (410,609) each contacting the active layer, for driving the light-emitting layer through the pair of the electrodes; and a matrix wiring portion having a scanning electrode line, a signal electrode line (403,603), and a first insulating layer (404,605); wherein the active layer comprises a semiconducting oxide which contains In and Zn and at least a part of which is amorphous; characterized in that a second insulating layer (408,607) containing hydrogen in an amount of less than 3 × 10 21 atoms/cm 3 is disposed between the active layer and the first insulating layer and covers the active layer between the source and drain electrode. a light-emitting layer (413, 612); a pair of electrodes (411,414;601,613) sandwiching the light-emitting layer; a transistor (406,408,409,410;606,607,608,609) with an active layer (409,608) and with a source electrode (410,609) and a drain electrode (410,609) each contacting the active layer, for driving the light-emitting layer through the pair of the electrodes; and a matrix wiring portion having a scanning electrode line, a signal electrode line (403,603), and a first insulating layer (404,605); wherein the active layer comprises a semiconducting oxide which contains In and Zn and at least a part of which is amorphous; characterized in that a second insulating layer (408,607) containing hydrogen in an amount of less than 3 × 10 21 atoms/cm 3 is disposed between the active layer and the first insulating layer and covers the active layer between the source and drain electrode.
Belt retractor for a seat belt of a motor vehicle, comprising - a belt shaft rotatably mounted in a housing frame, - a profiled head that can be locked relative to the housing frame, and - a multi-stage first force-limiting device, the first force-limiting device being coupled to the profiled head on one side and to the belt shaft on the other side, and the first force-limiting device allowing a force-limited rotation of the belt shaft relative to the locked profiled head, an actively triggerable decoupling device being formed by means of which the belt shaft can be decoupled from the force limitation of the multi-stage first force-limiting device, a drive of the decoupling device and a drive of a switching device of the multi-stage first force-limiting device being arranged in a common housing for switching the force-limited relative rotation from a first stage to a second stage, characterized in that the common housing has receiving openings for the each of the drives (9, 17). - a belt shaft rotatably mounted in a housing frame, - a profiled head that can be locked relative to the housing frame, and - a multi-stage first force-limiting device, the first force-limiting device being coupled to the profiled head on one side and to the belt shaft on the other side, and the first force-limiting device allowing a force-limited rotation of the belt shaft relative to the locked profiled head,
An apparatus for integrity verification of an IR detector, the apparatus comprising: an undercarriage component; an IR detector configured to detect a temperature of an IR emission from the undercarriage component in a detection path, the detection path being defined as the optical path from the undercarriage component to the IR detector, an IR emitter configured to emit an IR signal at a reference temperature wherein the IR emitter is positioned such that the IR signal is directed at the IR detector; and a controller connected to the IR detector and the IR emitter wherein the controller is configured to compare the reference temperature of the IR signal and the detected temperature of the IR signal detected by the IR detector to determine the integrity of the IR detector characterized in that the IR emitter is positioned in the detection path. an undercarriage component; an IR detector configured to detect a temperature of an IR emission from the undercarriage component in a detection path, the detection path being defined as the optical path from the undercarriage component to the IR detector, an IR emitter configured to emit an IR signal at a reference temperature wherein the IR emitter is positioned such that the IR signal is directed at the IR detector; and a controller connected to the IR detector and the IR emitter wherein the controller is configured to compare the reference temperature of the IR signal and the detected temperature of the IR signal detected by the IR detector to determine the integrity of the IR detector characterized in that the IR emitter is positioned in the detection path.
An interface device for a computerised system, the interface device including an engagement element configured for operable engagement with a region on a touchscreen of the computerised system to enable interfacing with the computerised system via the touchscreen, wherein the engagement element includes a viewing surface configured to allow a representation of content that is displayed at the region on the touchscreen with which the engagement element is operably engaged, to be visible through the viewing surface, and wherein the interface device is characterised in that said engagement element further includes at least one sensor, wherein said interface device is adapted to transmit sensor data of said engagement element to said computerized system.
Process for the purification of aqueous hydrogen peroxide solutions comprising the treatment of an aqueous hydrogen peroxide solution with, first, at least one membrane purification step, followed by contact with at least one adsorption resin, followed by at least one ion exchange purification step.
A socket for use with a spherical bearing, said socket having an inner circumferential surface; wherein said socket comprises at least a first concave section provided in said inner circumferential surface defined by a concave circular arc (102a, 103a) that extends into the socket in comparison to the arc of the socket internal circumferential surface, wherein intersect points which define the edges of the concave section (102, 103) in a circumferential direction between the socket and the concave section are defined by an arc angle of from 40° to 50° from the center of the socket, so that the circumferential length of said concave section (102, 103) is determined by an arc of approximately 40° to 50° extending from the central point of the socket, wherein the concave section is positioned at a point on the inner circumferential surface where the highest points of stress usually occur in use with a spherical bearing and extends along the whole axial length of the socket, so that this section of the socket and the outer surface of the spherical bearing are not in contact at this point when in use. said socket having an inner circumferential surface; wherein said socket comprises at least a first concave section provided in said inner circumferential surface defined by a concave circular arc (102a, 103a) that extends into the socket in comparison to the arc of the socket internal circumferential surface, wherein intersect points which define the edges of the concave section (102, 103) in a circumferential direction between the socket and the concave section are defined by an arc angle of from 40° to 50° from the center of the socket, so that the circumferential length of said concave section (102, 103) is determined by an arc of approximately 40° to 50° extending from the central point of the socket, wherein the concave section is positioned at a point on the inner circumferential surface where the highest points of stress usually occur in use with a spherical bearing and extends along the whole axial length of the socket, so that this section of the socket and the outer surface of the spherical bearing are not in contact at this point when in use.
A method of restraining migration of formation solids in a wellbore surrounded by a formation, comprising: - feeding a slurry, comprising water, a viscosifier, and a concentration of cement clinker particles, into the wellbore; - hydrating the clinker particles in the wellbore, whereby the clinker particles are kept in suspension during the hydrating, and whereby upon completion of the hydrating the hydrated clinker particles form a hardened cement consisting of a permeable structure of interconnected hydrated clinker particles; characterized in that a layer of degradable lost circulation material separates the slurry with clinker particles from the formation surrounding the wellbore during said hydrating of the clinker particles. - feeding a slurry, comprising water, a viscosifier, and a concentration of cement clinker particles, into the wellbore; - hydrating the clinker particles in the wellbore, whereby the clinker particles are kept in suspension during the hydrating, and whereby upon completion of the hydrating the hydrated clinker particles form a hardened cement consisting of a permeable structure of interconnected hydrated clinker particles;
An underground mining vehicle comprising an electric motor for driving the vehicle, a rechargeable battery for supplying electric energy to the electric motor, a charging system comprising a charging circuit and a charging connection connected to the charging system for supplying electric energy to the charging system from an electric power source external to the vehicle for recharging the rechargeable battery, and a battery cooling system comprising at least one cooling circuit (25, 27, 39) with cooling agent for cooling the battery, characterized in that the underground mining vehicle further comprises a measuring element for measuring cooling agent temperature (TM1, TM2, TM3) in the at least one cooling circuit (25, 27, 39), a control unit configured to control an operation of the charging system for controlling the recharging of the battery, the control unit being configured to comprise a number of different, selectable recharging modes (FRM, SLRM, SERM), wherein each selectable recharging mode has its own special recharging parameters that affect at least one of a recharging voltage, a recharging current, a recharging power and a duration of the recharging, and to control the recharging of the battery according to the selected recharging mode (FRM, SLRM, SERM) and to perform an automatic change from one selectable recharging mode (FRM, SLRM, SERM) to another selectable recharging mode (FRM, SLRM, SERM) in response to the cooling agent temperature (TM1, TM2, TM3) in the at least one cooling circuit (25, 27, 39) exceeding an overheating limit, and a transmitter controlled by the control unit at least for sending a status notification about an automatic change from one selectable recharging mode (FRM, SLRM, SERM) to another selectable recharging mode (FRM, SLRM, SERM) to an operator remote terminal device (17, 31, 34) of an operator of the underground mining vehicle.
Enaminocarbonyl compounds of the formula in which A is 6-chloropyrid-3-yl, 6-bromopyrid-3-yl, or 6-chloro-1,4-pyridazin-3-yl; B is OCH 3, OCH 2 CH 3, OCH(CH 3) 2; D is a T-R 5 radical in which T is oxygen and R 5 is methylcarbonyl, ethylcarbonyl, tert- butylcarbonyl or methoxycarbonyl; R 1 is methyl, cyclopropyl or 2,2-difluoroethyl; and R 2 and R 3 are each hydrogen. A is 6-chloropyrid-3-yl, 6-bromopyrid-3-yl, or 6-chloro-1,4-pyridazin-3-yl; B is OCH 3, OCH 2 CH 3, OCH(CH 3) 2; D is a T-R 5 radical in which T is oxygen and R 5 is methylcarbonyl, ethylcarbonyl, tert- butylcarbonyl or methoxycarbonyl; R 1 is methyl, cyclopropyl or 2,2-difluoroethyl; and R 2 and R 3 are each hydrogen.
A process for preparing a cement material comprising the steps of: a. reacting anti-coagulated blood sourced from one or more non-human creatures with a base to form a mixture; b. adding an acid to the mixture; c. stabilising the mixture produced by steps a. and b. against oxidation; d. adding the mixture to a solvent to provide a foaming agent solution wherein the foaming agent is present in the range 10 - 30 % by volume wherein the solvent comprises water and 0-10% one or more additional solvents; e. foaming the foaming agent solution; and f. adding the foamed foaming agent solution to a cement with mixing. a. reacting anti-coagulated blood sourced from one or more non-human creatures with a base to form a mixture; b. adding an acid to the mixture; c. stabilising the mixture produced by steps a. and b. against oxidation; d. adding the mixture to a solvent to provide a foaming agent solution wherein the foaming agent is present in the range 10 - 30 % by volume wherein the solvent comprises water and 0-10% one or more additional solvents; e. foaming the foaming agent solution; and f. adding the foamed foaming agent solution to a cement with mixing.
An automotive refinish coating mixer system, comprising (a) one or both of (i) at least one pellet of a compressed mixture of metal pigment and a powdered, water-soluble polymer and (ii) at least one pre-measured portion of metal pigment sealed in water-soluble polymer film; (b) a plurality of aqueous pigmented and unpigmented bases; and (c) a reducer base. (a) one or both of (i) at least one pellet of a compressed mixture of metal pigment and a powdered, water-soluble polymer and (ii) at least one pre-measured portion of metal pigment sealed in water-soluble polymer film; (i) at least one pellet of a compressed mixture of metal pigment and a powdered, water-soluble polymer and (ii) at least one pre-measured portion of metal pigment sealed in water-soluble polymer film; (b) a plurality of aqueous pigmented and unpigmented bases; and (c) a reducer base.
A signal processing device comprising: an acquiring unit configured to acquire a signal resulting from conversion of vibration of a string; a filter unit configured to perform convolution operation on the signal acquired by the acquiring unit according to a filter coefficient and to output a resulting signal; a changing unit configured to change the filter coefficient; and a manipulation unit including manipulators for receiving a manipulation from a user, characterized in that the filter coefficient is set such that the filter unit has a frequency response containing a plurality of peak waveforms associated with resonance of a body of a stringed instrument within a specific frequency range, and the changing unit is configured to change the filter coefficient according to a single manipulation received through one of the manipulators of the manipulation unit so as to change a peak value of each of the peak waveforms while maintaining a width of each of the peak waveforms in the frequency response of the filter unit. an acquiring unit configured to acquire a signal resulting from conversion of vibration of a string; a filter unit configured to perform convolution operation on the signal acquired by the acquiring unit according to a filter coefficient and to output a resulting signal; a changing unit configured to change the filter coefficient; and a manipulation unit including manipulators for receiving a manipulation from a user,
Method of operating an aircraft cabin illumination system having a plurality of light modules with a set spatial distribution across an aircraft cabin, the method comprising: receiving an image that has a two-dimensional array of pixels, wherein the step of receiving the image comprises receiving the image from a memory within the aircraft cabin illumination system or receiving the image from a flight attendant panel coupled to the aircraft cabin illumination system; mapping the image to the set spatial distribution of the plurality of light modules, wherein said mapping comprises mapping the image to a two-dimensional projection of the locations of the plurality of light modules in the aircraft cabin; generating an illumination command set, including an operating command for each of the plurality of light modules, on the basis of the mapping of the image to the set spatial distribution of the plurality of light modules; and issuing the illumination command set to the plurality of light modules; wherein the plurality of light modules are distributed among at least two of the group comprising: at least one ceiling light unit, at least one overhead compartment light unit, at least one handrail light unit, at least one seating light unit, at least one wall light unit, at least one window light unit, and at least one monument light unit. receiving an image that has a two-dimensional array of pixels, wherein the step of receiving the image comprises receiving the image from a memory within the aircraft cabin illumination system or receiving the image from a flight attendant panel coupled to the aircraft cabin illumination system; mapping the image to the set spatial distribution of the plurality of light modules, wherein said mapping comprises mapping the image to a two-dimensional projection of the locations of the plurality of light modules in the aircraft cabin; generating an illumination command set, including an operating command for each of the plurality of light modules, on the basis of the mapping of the image to the set spatial distribution of the plurality of light modules; and issuing the illumination command set to the plurality of light modules; wherein the plurality of light modules are distributed among at least two of the group comprising: at least one ceiling light unit, at least one overhead compartment light unit, at least one handrail light unit, at least one seating light unit, at least one wall light unit, at least one window light unit, and at least one monument light unit. at least one ceiling light unit, at least one overhead compartment light unit, at least one handrail light unit, at least one seating light unit, at least one wall light unit, at least one window light unit, and at least one monument light unit.