mhurhangee/ep-ind-claims huggingface dataset:
An information processing system comprising: a server apparatus configured to encapsulate a program of an extended function of a basic input output system, BIOS, to which a signature of a user is assigned, assign a signature of a server manager to an encapsulated capsule file, and provide the capsule file to an information processing apparatus; and the information processing apparatus, wherein the information processing apparatus includes a BIOS storage unit configured to store a program of the BIOS, and a BIOS processing unit configured to extract the program of the extended function from the capsule file to store the program of the extended function in the BIOS storage unit in a case in which validity of the capsule file acquired from the server apparatus is confirmed based on the signature of the server manager, permit execution of the program of the extended function in a case in which validity of the program of the extended function is confirmed based on a signature certificate of the user and the signature of the user, and prohibit execution of the program of the extended function in a case in which the validity of the program of the extended function is not confirmed. a server apparatus configured to encapsulate a program of an extended function of a basic input output system, BIOS, to which a signature of a user is assigned, assign a signature of a server manager to an encapsulated capsule file, and provide the capsule file to an information processing apparatus; and the information processing apparatus, wherein the information processing apparatus includes a BIOS storage unit configured to store a program of the BIOS, and a BIOS processing unit configured to extract the program of the extended function from the capsule file to store the program of the extended function in the BIOS storage unit in a case in which validity of the capsule file acquired from the server apparatus is confirmed based on the signature of the server manager, permit execution of the program of the extended function in a case in which validity of the program of the extended function is confirmed based on a signature certificate of the user and the signature of the user, and prohibit execution of the program of the extended function in a case in which the validity of the program of the extended function is not confirmed. a BIOS storage unit configured to store a program of the BIOS, and a BIOS processing unit configured to extract the program of the extended function from the capsule file to store the program of the extended function in the BIOS storage unit in a case in which validity of the capsule file acquired from the server apparatus is confirmed based on the signature of the server manager, permit execution of the program of the extended function in a case in which validity of the program of the extended function is confirmed based on a signature certificate of the user and the signature of the user, and prohibit execution of the program of the extended function in a case in which the validity of the program of the extended function is not confirmed.
A method for finding an operating point of an electric motor comprising the steps of: generating a perturbation signal; combining said perturbation signal with a current magnitude related to said motor or combining said perturbation signal with a power magnitude related to a drive system of said motor, yielding a combined signal, wherein said power magnitude is obtained at least partly using measurements of current or voltage; characterised by the step of: sending, based on said combined signal, a flux adjustment signal to adjust a flux of said motor to approach an optimum operating point; and adding the flux adjustment signal to a flux magnitude reference signal. generating a perturbation signal; combining said perturbation signal with a current magnitude related to said motor or combining said perturbation signal with a power magnitude related to a drive system of said motor, yielding a combined signal, wherein said power magnitude is obtained at least partly using measurements of current or voltage; sending, based on said combined signal, a flux adjustment signal to adjust a flux of said motor to approach an optimum operating point; and adding the flux adjustment signal to a flux magnitude reference signal.
A control device configured to control a plurality of irradiation devices arranged adjacent to one another in a first direction, wherein the plurality of irradiation devices comprises three or more irradiation devices, wherein each of the plurality of irradiation devices comprises a movable reflection unit by which it is able to move an irradiation position of an electromagnetic wave in a second direction different from the first direction while moving the irradiation position of the electromagnetic wave in the first direction, wherein the control device is configured to perform control such that the irradiation position of the electromagnetic wave of each of the plurality of irradiation devices is separated by a predetermined distance or more in the second direction at a predetermined timing, and characterized in that the control device is configured to perform the control such that as a range (α, α1, α2) where the electromagnetic wave is irradiated by each of the plurality of irradiation devices goes in the first direction, a phase of the movable reflection unit in the second direction is shifted, by using a reference and information that is stored in advance and indicates how much the phase is shifted from the reference, such that a way of phase progress becomes zigzagged. wherein the plurality of irradiation devices comprises three or more irradiation devices, wherein each of the plurality of irradiation devices comprises a movable reflection unit by which it is able to move an irradiation position of an electromagnetic wave in a second direction different from the first direction while moving the irradiation position of the electromagnetic wave in the first direction, wherein the control device is configured to perform control such that the irradiation position of the electromagnetic wave of each of the plurality of irradiation devices is separated by a predetermined distance or more in the second direction at a predetermined timing, and characterized in that the control device is configured to perform the control such that as a range (α, α1, α2) where the electromagnetic wave is irradiated by each of the plurality of irradiation devices goes in the first direction, a phase of the movable reflection unit in the second direction is shifted, by using a reference and information that is stored in advance and indicates how much the phase is shifted from the reference, such that a way of phase progress becomes zigzagged.
A system for locating an underground utility line, wherein the utility line emits an electromagnetic field, the system comprising: a hand-held frame having a top and a bottom and comprising an elongate portion that extends vertically downward from a housing, the elongate portion having a top and a bottom; a horizontally oriented top peak antenna supported on the elongate portion proximate the top of the elongate portion; a horizontally oriented bottom peak antenna being parallel to the top peak antenna, supported proximate the bottom of the elongate portion and separated from the top peak antenna by a known distance; a vertically oriented null antenna supported on the elongate portion and disposed at an orientation orthogonal to the top peak antenna and the bottom peak antenna; wherein the top peak antenna and the bottom peak antenna define a locating plane; an inclinometer supported on the frame to measure a tilt angle of the frame within the locating plane; and a processor supported on the frame to determine a direct distance between the frame and the underground utility line using a signal strength of the electromagnetic field received at the top peak antenna compared to a signal strength received at the bottom peak antenna with the null antenna pointed substantially at the utility line; wherein the processor is configured for determining a horizontal distance between the frame and a point on the ground above the utility line using the direct distance and the tilt angle of the frame. a hand-held frame having a top and a bottom and comprising an elongate portion that extends vertically downward from a housing, the elongate portion having a top and a bottom; a horizontally oriented top peak antenna supported on the elongate portion proximate the top of the elongate portion; a horizontally oriented bottom peak antenna being parallel to the top peak antenna, supported proximate the bottom of the elongate portion and separated from the top peak antenna by a known distance; a vertically oriented null antenna supported on the elongate portion and disposed at an orientation orthogonal to the top peak antenna and the bottom peak antenna; wherein the top peak antenna and the bottom peak antenna define a locating plane; an inclinometer supported on the frame to measure a tilt angle of the frame within the locating plane; and a processor supported on the frame to determine a direct distance between the frame and the underground utility line using a signal strength of the electromagnetic field received at the top peak antenna compared to a signal strength received at the bottom peak antenna with the null antenna pointed substantially at the utility line; wherein the processor is configured for determining a horizontal distance between the frame and a point on the ground above the utility line using the direct distance and the tilt angle of the frame.
A method for automatic regulation of a system in which a plurality of parameters characteristic of the system are measured and in which at least one control parameter (u) is applied as a function of the measured parameters (y), characterized in that: - a nominal operating point of the system is chosen, - a nominal model (Mn) describing the system at this nominal operating point is determined, - a set of representative models ([Mk]) of the possible variations relative to the nominal model (Mn) is determined, - the error of the nominal model (Mn) of the system is parameterized by decomposition ([δ ik]) over all the errors between the models of the set of models ([Mk]) representative of the possible variations and the nominal model (Mn), - a given optimization criterion is minimized by varying at least one of the previously obtained parameters ([δ ik]) of the error (Δ) relative to the nominal model of the system. - a nominal operating point of the system is chosen, - a nominal model (Mn) describing the system at this nominal operating point is determined, - a set of representative models ([Mk]) of the possible variations relative to the nominal model (Mn) is determined, - the error of the nominal model (Mn) of the system is parameterized by decomposition ([δ ik]) over all the errors between the models of the set of models ([Mk]) representative of the possible variations and the nominal model (Mn), - a given optimization criterion is minimized by varying at least one of the previously obtained parameters ([δ ik]) of the error (Δ) relative to the nominal model of the system.
An ultrasonic sensor for detecting a source of airborne ultrasound within a detection frequency range, which ultrasonic sensor is characterised by an undamped piezoelectric crystal held in a material which permits substantially uninhibited deformation of said piezoelectric crystal in response to incident ultrasound within said detection frequency range so that a voltage is generated between two faces thereof, but which material inhibits vibration of said piezoelectric crystal when subjected to vibrations outside said detection frequency range.
A method for securing a plurality of permanent magnets within a rotor core that includes a first end, a second end, and a plurality of permanent magnet openings, each permanent magnet opening configured to receive a permanent magnet of the plurality of permanent magnets, the plurality of permanent magnets extending between the first end and the second end, said method comprising: coupling a first rotor end lamination to the first end of the rotor core, the first rotor end lamination including an axially outermost member of the rotor and including a plurality of inner walls (54, 56, 58, 60) that define a plurality of adjacent openings (68, 70, 72, 74, 76, 78, 80, 82, 84, 86) within the first rotor end lamination, the openings corresponding to the plurality of permanent magnet openings in the rotor core, the first rotor end lamination also including a bridge portion positioned between a radially outer inner wall of the plurality of inner walls and an outer edge of the first rotor end lamination, wherein the radially outer inner wall is curved; positioning the permanent magnet at least partially within the permanent magnet opening of the plurality of permanent magnet openings; and mechanically deforming the bridge portion of the first rotor end lamination to secure the permanent magnet within the permanent magnet opening. coupling a first rotor end lamination to the first end of the rotor core, the first rotor end lamination including an axially outermost member of the rotor and including a plurality of inner walls (54, 56, 58, 60) that define a plurality of adjacent openings (68, 70, 72, 74, 76, 78, 80, 82, 84, 86) within the first rotor end lamination, the openings corresponding to the plurality of permanent magnet openings in the rotor core, the first rotor end lamination also including a bridge portion positioned between a radially outer inner wall of the plurality of inner walls and an outer edge of the first rotor end lamination, wherein the radially outer inner wall is curved; positioning the permanent magnet at least partially within the permanent magnet opening of the plurality of permanent magnet openings; and mechanically deforming the bridge portion of the first rotor end lamination to secure the permanent magnet within the permanent magnet opening.
A method for stitching a plurality of globally aligned sub-images in a region to be stitched, the method comprising: finding a set of corresponding pixels in the plurality of globally aligned sub-images; determining, by means of optimization, an interpolation position that corresponds to a weighted sum of the positions of the corresponding pixels; determining a pixel value of a pixel at the interpolation position in the region to be stitched using pixel values of the corresponding pixels; wherein the weighting factor for the position of a corresponding pixel in a given sub-image depends on a relative distance of said interpolation position to a border of the region to be stitched associated with that sub-image. finding a set of corresponding pixels in the plurality of globally aligned sub-images; determining, by means of optimization, an interpolation position that corresponds to a weighted sum of the positions of the corresponding pixels; determining a pixel value of a pixel at the interpolation position in the region to be stitched using pixel values of the corresponding pixels; wherein the weighting factor for the position of a corresponding pixel in a given sub-image depends on a relative distance of said interpolation position to a border of the region to be stitched associated with that sub-image.
Pouring closure for the neck of a canister, container or tube, consisting of a neck attachment and an associated closure cover as jet former, wherein a tube which extends downwardly on the closure cover leads sealingly into the tubular channel inside the neck attachment and has a window as pouring mouth which extends at least around a part of the tube circumference and, in the closed state of the pouring closure, lies sealingly against the inner wall of the channel, wherein the closure cover is axially extendable in the neck attachment until its window is situated above the upper edge of the neck attachment and then acts as a pouring mouth and jet former, characterized in that the lateral window in the tube extends about a circumferential region of at least approximately 90° of the tube circumference and the remaining tube circumference is of double-walled configuration, with the result that, in the remaining tube circumference of the tube or inside or outside the channel, coaxial to or offset parallel to the channel, there is formed at least one air channel which opens outwardly at the lower end of the tube and, in the upper region of the window, likewise leads outwardly laterally on one side or on both sides thereof, with the result that controlled multi-side pouring is made possible.
A gasket for establishing a seal between a first member and a second member, comprising: at least one layer having at least one opening and a compression bead projecting out of a plane, and wherein said compression bead extends at least partially around said opening; at least one stopper integrally formed with at least one of said at least one layer in a predetermined area thereof and spaced from said compression bead; and said stopper including an outer wall extending from the area of said layer upwardly to a generally flat raised surface and an inner wall extending downwardly from said raised surface to a lower interior surface and being recessed relative to said raised surface, and wherein said generally flat raised surface extends through an enclosed shape, said lower interior surface is continuously extending between the periphery of said inner wall and the area of said layer adjacent said outer wall is surrounding said stopper, characterized in that said predetermined area is recessed relative to said plane. at least one layer having at least one opening and a compression bead projecting out of a plane, and wherein said compression bead extends at least partially around said opening; at least one stopper integrally formed with at least one of said at least one layer in a predetermined area thereof and spaced from said compression bead; and said stopper including an outer wall extending from the area of said layer upwardly to a generally flat raised surface and an inner wall extending downwardly from said raised surface to a lower interior surface and being recessed relative to said raised surface, and wherein said generally flat raised surface extends through an enclosed shape, said lower interior surface is continuously extending between the periphery of said inner wall and the area of said layer adjacent said outer wall is surrounding said stopper, characterized in that said predetermined area is recessed relative to said plane.
Method for installing a single power cable span in a deployment site comprising a rail (1; 30) for supporting the single cable span by trolleys, the method being characterised in comprising the steps of: - providing a conveyor belt outside of the deployment site, the conveyor belt having a plurality of locations set at a predetermined distance one from the other along a longitudinal movement direction of the conveyor belt and moving integrally with the latter; - repeating the following steps until the single cable span reaches a predetermined position: o while the conveyor belt is moving, positioning a first part of a holder at one of the locations; o while advancing the single cable span, laying a portion thereof on said first part of the holder positioned at the location moving with the conveyor belt; o connecting a second part (13") of the holder to the first one to lock the cable span portion in between; o while the cable span portion locked by the holder is leaving the conveyor belt, removing the first part of the holder from the location moving with the conveyor belt. - providing a conveyor belt outside of the deployment site, the conveyor belt having a plurality of locations set at a predetermined distance one from the other along a longitudinal movement direction of the conveyor belt and moving integrally with the latter; - repeating the following steps until the single cable span reaches a predetermined position: o while the conveyor belt is moving, positioning a first part of a holder at one of the locations; o while advancing the single cable span, laying a portion thereof on said first part of the holder positioned at the location moving with the conveyor belt; o connecting a second part (13") of the holder to the first one to lock the cable span portion in between; o while the cable span portion locked by the holder is leaving the conveyor belt, removing the first part of the holder from the location moving with the conveyor belt. o while the conveyor belt is moving, positioning a first part of a holder at one of the locations; o while advancing the single cable span, laying a portion thereof on said first part of the holder positioned at the location moving with the conveyor belt; o connecting a second part (13") of the holder to the first one to lock the cable span portion in between; o while the cable span portion locked by the holder is leaving the conveyor belt, removing the first part of the holder from the location moving with the conveyor belt.
Pipe having - a multilayered wall, characterized in that - a first layer of the wall has an elastomeric carrier having metal particles which are arranged so as to be distributed, - a second layer of the wall has an elastomeric carrier having metal particles which are arranged so as to be distributed, - the metal particles of the first layer are arranged so as to overlap the metal particles of the second layer, and - the metal particles of the first layer are arranged so as to be offset with respect to the metal particles of the second layer in an axial direction A and/or circumferential direction U. - a multilayered wall, - a first layer of the wall has an elastomeric carrier having metal particles which are arranged so as to be distributed, - a second layer of the wall has an elastomeric carrier having metal particles which are arranged so as to be distributed, - the metal particles of the first layer are arranged so as to overlap the metal particles of the second layer, and - the metal particles of the first layer are arranged so as to be offset with respect to the metal particles of the second layer in an axial direction A and/or circumferential direction U.
Thermoplastic resin composition comprising: at least one styrene-acrylonitrile copolymer component A1, at least one acrylonitrile styrene acrylate graft copolymer A2 as impact modifier, optionally at least one thermoplastic polymer A3 other than components A1 and A2, (b) at least one transition metal pigment B, (c) at least one hindered amine UV light stabilizer C, and (d) optionally further polymer additives D, other than components B and C, wherein the UV stabilizing component(s) present in the thermoplastic resin are only hindered amine UV light stabilizer(s) C, and wherein the composition shows a color shift dE of equal to or lower than 3.0 upon UV irradiation according to ISO-4892-2 after 6000 hours. at least one styrene-acrylonitrile copolymer component A1, at least one acrylonitrile styrene acrylate graft copolymer A2 as impact modifier, optionally at least one thermoplastic polymer A3 other than components A1 and A2, (b) at least one transition metal pigment B, (c) at least one hindered amine UV light stabilizer C, and (d) optionally further polymer additives D, other than components B and C, wherein the UV stabilizing component(s) present in the thermoplastic resin are only hindered amine UV light stabilizer(s) C, and wherein the composition shows a color shift dE of equal to or lower than 3.0 upon UV irradiation according to ISO-4892-2 after 6000 hours.