mhurhangee/ep-ind-claims huggingface dataset:
A method of moving one of a plurality of software objects deployed among a plurality of object destinations in a computing system, the method comprising: identifying a deployed software object to be moved to a new object destination; identifying a candidate object destination; identifying other software objects deployed on the candidate object destination; identifying a constraint associated with the software object to be moved, the identifying the constraint associated with the software object to be moved including identifying a data type constraint for the software object; identifying a constraint associated with the other software objects deployed on the candidate object destination, the identifying the constraint associated with the other software objects deployed on the candidate object destination including identifying a respective data type constraint for each of the other software objects deployed on the candidate object destination; determining whether the constraint associated with the software object to be moved is compatible with the constraint associated with the other software objects deployed on the candidate object destination, the determining including determining whether the data type constraint for the software object is compatible with the respective data type constraint for each of the other software objects deployed on the candidate object destination; and authorizing the move of the software object to be moved where it is determined that the constraint associated with the software object to be moved is compatible with the constraint associated with the other software objects deployed on the candidate object destination. identifying a deployed software object to be moved to a new object destination; identifying a candidate object destination; identifying other software objects deployed on the candidate object destination; identifying a constraint associated with the software object to be moved, the identifying the constraint associated with the software object to be moved including identifying a data type constraint for the software object; identifying a constraint associated with the other software objects deployed on the candidate object destination, the identifying the constraint associated with the other software objects deployed on the candidate object destination including identifying a respective data type constraint for each of the other software objects deployed on the candidate object destination; determining whether the constraint associated with the software object to be moved is compatible with the constraint associated with the other software objects deployed on the candidate object destination, the determining including determining whether the data type constraint for the software object is compatible with the respective data type constraint for each of the other software objects deployed on the candidate object destination; and authorizing the move of the software object to be moved where it is determined that the constraint associated with the software object to be moved is compatible with the constraint associated with the other software objects deployed on the candidate object destination.
A pupil detection device that detects a pupil image in an eye area image, comprising: a first detection section that detects a cornea-reflected image that is a high luminance image area of the eye area image; an evaluation value calculation section that sets a plurality of line segments having a reference point of the cornea-reflected image as one end and having a predetermined length, and calculates a luminance evaluation value based on luminance of each pixel in each line segment and reference luminance; a specifying section that specifies a pupil center straight line passing through a center of the pupil image from among the plurality of line segments, based on the luminance evaluation value; and a second detection section that detects the pupil image based on a luminance state around the pupil center straight line or a luminance state of the pupil center straight line. a first detection section that detects a cornea-reflected image that is a high luminance image area of the eye area image; an evaluation value calculation section that sets a plurality of line segments having a reference point of the cornea-reflected image as one end and having a predetermined length, and calculates a luminance evaluation value based on luminance of each pixel in each line segment and reference luminance; a specifying section that specifies a pupil center straight line passing through a center of the pupil image from among the plurality of line segments, based on the luminance evaluation value; and a second detection section that detects the pupil image based on a luminance state around the pupil center straight line or a luminance state of the pupil center straight line.
An illumination device that projects a desired projection pattern on a surface to be illuminated, comprising: a light source; a diffraction optical element configured to diffract a light from the light source and to project the projection pattern on the surface to be illuminated; an optical-element drive unit configured to support the diffraction optical element and to mechanically drive the same; and a light-source drive unit configured to support the light source and to mechanically drive the same; wherein: the optical-element drive unit is configured to change an orientation of an incident surface of the diffraction optical element in three-dimensional space; the light-source drive unit is configured to change, in accordance with the change in orientation of the incident surface, an orientation of the light from the light source, and wherein the optical-element drive unit is configured, apart from the changing orientation of the incident surface, to rotate the diffraction optical element about a rotation axis (Rx) orthogonal to the rotation plane including the incident surface of the diffraction optical element. a light source; a diffraction optical element configured to diffract a light from the light source and to project the projection pattern on the surface to be illuminated; an optical-element drive unit configured to support the diffraction optical element and to mechanically drive the same; and a light-source drive unit configured to support the light source and to mechanically drive the same; wherein: the optical-element drive unit is configured to change an orientation of an incident surface of the diffraction optical element in three-dimensional space; the light-source drive unit is configured to change, in accordance with the change in orientation of the incident surface, an orientation of the light from the light source, and wherein the optical-element drive unit is configured, apart from the changing orientation of the incident surface, to rotate the diffraction optical element about a rotation axis (Rx) orthogonal to the rotation plane including the incident surface of the diffraction optical element. the optical-element drive unit is configured to change an orientation of an incident surface of the diffraction optical element in three-dimensional space; the light-source drive unit is configured to change, in accordance with the change in orientation of the incident surface, an orientation of the light from the light source, and wherein the optical-element drive unit is configured, apart from the changing orientation of the incident surface, to rotate the diffraction optical element about a rotation axis (Rx) orthogonal to the rotation plane including the incident surface of the diffraction optical element.
A watch provided with a striking work, the striking work comprising at least one gong attached to a gong holder, and at least one hammer for activating the gong to vibrate it, characterised in that the striking work further comprises: - an electric energy accumulator, - an integrated circuit powered by the electric energy accumulator and configured to produce at least one current impulse, - an electrodynamic actuator which is connected to the integrated circuit and which is capable of receiving said impulse(s), the actuator comprising a magnet integral with a hammer or connected to the hammer so as to generate, in response to a single current impulse, an oscillation of the hammer from the rest position, and wherein the strike occurs approximately when the hammer speed during said oscillation is maximal, the actuator also comprising a coil surrounding the magnet and which receives said impulse(s), the oscillation being capable of actuating a hammer strike on the gong, - a return means connected on one hand to the watch plate and on the other hand to the magnet and connected to the hammer so as to return the hammer to its rest position after the strike. - an electric energy accumulator, - an integrated circuit powered by the electric energy accumulator and configured to produce at least one current impulse, - an electrodynamic actuator which is connected to the integrated circuit and which is capable of receiving said impulse(s), the actuator comprising a magnet integral with a hammer or connected to the hammer so as to generate, in response to a single current impulse, an oscillation of the hammer from the rest position, and wherein the strike occurs approximately when the hammer speed during said oscillation is maximal, the actuator also comprising a coil surrounding the magnet and which receives said impulse(s), the oscillation being capable of actuating a hammer strike on the gong, - a return means connected on one hand to the watch plate and on the other hand to the magnet and connected to the hammer so as to return the hammer to its rest position after the strike.
Compositions comprising A) at least one polyalkylene terephthalate or polycycloalkylene terephthalate, B) at least one organic phosphinic salt of the formula and/or at least one organic diphosphinic salt of the formula and/or polymers thereof, in which R 1 and R 2 are identical or different and are a linear or branched C 1 -C 6 alkyl, and/or are C 6 -C 14 aryl, R 3 is linear or branched C 1 -C 10 alkylene, C 6 -C 10 arylene or C 1 -C 6 alkyl-C 6 -C 10 arylene or C 6 -C 10 aryl-C 1 -C 6 alkylene, M is aluminium, zinc or titanium, m is an integer in the range from 1 to 4; n is an integer in the range from 1 to 3, and x is 1 and 2, and n, x and m in formula may at the same time adopt only those integers such that the diphosphinic salt of the formula as a whole is uncharged, and C) at least one inorganic phosphate salt from the group of metal hydrogen phosphates, metal dihydrogen phosphates, metal dihydrogen pyrophosphates and/or metal pyrophosphates, metal being zinc. A) at least one polyalkylene terephthalate or polycycloalkylene terephthalate, B) at least one organic phosphinic salt of the formula and/or at least one organic diphosphinic salt of the formula and/or polymers thereof, in which R 1 and R 2 are identical or different and are a linear or branched C 1 -C 6 alkyl, and/or are C 6 -C 14 aryl, R 3 is linear or branched C 1 -C 10 alkylene, C 6 -C 10 arylene or C 1 -C 6 alkyl-C 6 -C 10 arylene or C 6 -C 10 aryl-C 1 -C 6 alkylene, M is aluminium, zinc or titanium, m is an integer in the range from 1 to 4; n is an integer in the range from 1 to 3, and x is 1 and 2, and n, x and m in formula may at the same time adopt only those integers such that the diphosphinic salt of the formula as a whole is uncharged, and R 1 and R 2 are identical or different and are a linear or branched C 1 -C 6 alkyl, and/or are C 6 -C 14 aryl, R 3 is linear or branched C 1 -C 10 alkylene, C 6 -C 10 arylene or C 1 -C 6 alkyl-C 6 -C 10 arylene or C 6 -C 10 aryl-C 1 -C 6 alkylene, M is aluminium, zinc or titanium, m is an integer in the range from 1 to 4; n is an integer in the range from 1 to 3, and x is 1 and 2, and n, x and m in formula may at the same time adopt only those integers such that the diphosphinic salt of the formula as a whole is uncharged, and C) at least one inorganic phosphate salt from the group of metal hydrogen phosphates, metal dihydrogen phosphates, metal dihydrogen pyrophosphates and/or metal pyrophosphates, metal being zinc.
Method for automatic detection of need for clutch calibration, the method comprising: - registering and storing in a data memory, before or in connection with engine shut down, a value of a clutch operating parameter; - registering a corresponding value of the clutch operating parameter in connection with subsequent engine start up; - determining need for clutch calibration if the difference between the stored value of the clutch operating parameter and the corresponding value of the clutch operating parameter exceeds a predetermined threshold value; - performing an automatic clutch calibration if a need for clutch calibration has been determined; characterised in that; - performing the automatic clutch calibration by updating at least one stored clutch control parameter with a value corresponding to the determined difference between the stored value of the clutch operating parameter and the corresponding value of the clutch operating parameter; and - performing the automatic clutch calibration by updating and displacing a stored complete clutch characteristic curve. - registering and storing in a data memory, before or in connection with engine shut down, a value of a clutch operating parameter; - registering a corresponding value of the clutch operating parameter in connection with subsequent engine start up; - determining need for clutch calibration if the difference between the stored value of the clutch operating parameter and the corresponding value of the clutch operating parameter exceeds a predetermined threshold value; - performing an automatic clutch calibration if a need for clutch calibration has been determined; - performing the automatic clutch calibration by updating at least one stored clutch control parameter with a value corresponding to the determined difference between the stored value of the clutch operating parameter and the corresponding value of the clutch operating parameter; and - performing the automatic clutch calibration by updating and displacing a stored complete clutch characteristic curve.
A perfuming composition comprising: - a viscosifying agent comprising tricyclodecanedimethanol alcohol, - a perfume oil comprising at least one perfuming ingredient; - at least one perfumery carrier comprising hexylene glycol, - optionally, a perfuming adjuvant, wherein the weight ratio between tricyclodecanedimethanol alcohol and hexylene glycol in the perfuming composition is from 0.1 to 15. - a viscosifying agent comprising tricyclodecanedimethanol alcohol, - a perfume oil comprising at least one perfuming ingredient; - at least one perfumery carrier comprising hexylene glycol, - optionally, a perfuming adjuvant,
Encapsulation process for at least one electronic component, said component being connected to at least one electrical contact track composed of a metal layer, the process comprising a step to deposit an aluminium oxide encapsulation layer (4; 42) by atomic layer deposition, characterised in that: - the process also comprises a step to deposit a titanium nitride layer directly on at least part of the electrical contact track; - the encapsulation layer is deposited such that said encapsulation layer (4; 42) directly covers the titanium nitride layer, in an area located above the electrical contact track; and - the process further comprises a step to establish electrical contact with the at least part of the electrical contact track, using a contact point or wire deposited on top of the encapsulation layer (4; 42) and above the at least part of the electrical contact track. - the process also comprises a step to deposit a titanium nitride layer directly on at least part of the electrical contact track; - the encapsulation layer is deposited such that said encapsulation layer (4; 42) directly covers the titanium nitride layer, in an area located above the electrical contact track; and - the process further comprises a step to establish electrical contact with the at least part of the electrical contact track, using a contact point or wire deposited on top of the encapsulation layer (4; 42) and above the at least part of the electrical contact track.
A heating assembly comprising: a nano alumina fabric comprising a glass fiber matrix; aluminum oxide fibers sized in nanometer dimensions and disposed therein; and a polymer resin impregnating the glass fiber matrix; a first adhesive; a heating element, wherein the nano alumina fabric is attached to the heating element by the first adhesive; a second adhesive; and a glass pre-preg fabric, wherein the glass pre-preg fabric is attached to the heating element by the second adhesive on a side of the heating element opposite the nano alumina fabric. a nano alumina fabric comprising a glass fiber matrix; aluminum oxide fibers sized in nanometer dimensions and disposed therein; and a polymer resin impregnating the glass fiber matrix; a glass fiber matrix; aluminum oxide fibers sized in nanometer dimensions and disposed therein; and a polymer resin impregnating the glass fiber matrix; a first adhesive; a heating element, wherein the nano alumina fabric is attached to the heating element by the first adhesive; a second adhesive; and a glass pre-preg fabric, wherein the glass pre-preg fabric is attached to the heating element by the second adhesive on a side of the heating element opposite the nano alumina fabric.
Device arranged on a joining robot for storing and separating joining elements, the device comprising at least one separating module (11, 21, 41) having a storage container (12, 22) for joining elements and an orientation device (15, 25, 45) for joining elements located in the storage container (12, 22), wherein the at least one separating module (11, 21, 45) is detachably connected to a base plate arranged on the joining robot by means of a quick-change device (13, 23, 32, 33, 34, 35, 36), characterised in that the device is mounted in a floating manner on the joining robot.
A tunable combiner system, comprising: a combiner having first, second, and third ports, the combiner configured to combine a first radio frequency, RF, signal received at the first port and a second RF signal received at the second port into a combined RF signal at the third port, wherein each of the first and second RF signals contains an audio signal modulated at a first frequency and a second frequency, respectively; a tunable capacitance network coupled to the third port of the combiner; and a band pass filter having an input coupled to the tunable capacitance network and an output for coupling to a transmitting antenna. a combiner having first, second, and third ports, the combiner configured to combine a first radio frequency, RF, signal received at the first port and a second RF signal received at the second port into a combined RF signal at the third port, wherein each of the first and second RF signals contains an audio signal modulated at a first frequency and a second frequency, respectively; a tunable capacitance network coupled to the third port of the combiner; and a band pass filter having an input coupled to the tunable capacitance network and an output for coupling to a transmitting antenna.
A method for adaptive demodulation of cellular device communication signals, the method comprising: receiving, by a computing device, a cellular communication signal transmitted over a Long Term Evolution, LTE, network; determining, by the computing device, a serving cell transmission mode of the cellular communication signal; determining, by the computing device, an interfering cell transmission mode of the cellular communication signal; determining, by the computing device, a modulation order of the interfering cell of the cellular communication signal; selecting, by the computing device, a demodulation scheme from a plurality of demodulation schemes based on the serving cell transmission mode, the interfering cell transmission mode, the modulation order of the interfering cell, and an interference-to-noise ratio; and demodulating, by the computing device, the cellular communication signal with the selected demodulation scheme. receiving, by a computing device, a cellular communication signal transmitted over a Long Term Evolution, LTE, network; determining, by the computing device, a serving cell transmission mode of the cellular communication signal; determining, by the computing device, an interfering cell transmission mode of the cellular communication signal; determining, by the computing device, a modulation order of the interfering cell of the cellular communication signal; selecting, by the computing device, a demodulation scheme from a plurality of demodulation schemes based on the serving cell transmission mode, the interfering cell transmission mode, the modulation order of the interfering cell, and an interference-to-noise ratio; and demodulating, by the computing device, the cellular communication signal with the selected demodulation scheme.
A cup holder, configured to be mounted on a dishwasher bowl basket, comprising a cup bracket and a goblet bayonet, the cup bracket is configured to place a cup, the goblet bayonet is provided on a first side of the cup bracket and is configured to accommodate a foot of a goblet, a second side of the cup bracket is provided with a mounting portion for mounting the cup holder on the dishwasher bowl basket, and the first side and the second side are opposite sides of the cup bracket in a width direction, and, in a mounting state, the mounting portion is rotatably connected to the dishwasher bowl basket, so that the cup holder is switched between an accommodation position and a working position, the mounting portion comprises a mounting buckle for buckling on a first rib of the dishwasher bowl basket so that the cup holder is rotated around the first rib, wherein the mounting buckle comprises a first hook portion, the first hook portion is configured to hook the first rib, characterised in that the mounting buckle further comprises a second hook portion, wherein the second hook portion is disposed at a free end of the first hook portion and extends toward an inner side of the first hook portion, and, in a mounting state, a free end of the second hook portion points toward the first rib to prevent the first rib from being separated from the first hook portion. wherein the mounting buckle comprises a first hook portion, the first hook portion is configured to hook the first rib, characterised in that the mounting buckle further comprises a second hook portion, wherein the second hook portion is disposed at a free end of the first hook portion and extends toward an inner side of the first hook portion, and, in a mounting state, a free end of the second hook portion points toward the first rib to prevent the first rib from being separated from the first hook portion.
A method of manufacturing a universal joint, the method characterized by comprising: temporarily assembling a bearing, which supports a shaft portion of a joint spider such that the shaft portion is rotatable, with respect to a through-hole and the shaft portion by press-fitting the bearing to a first position in the through-hole of a yoke (110; 210); and clinching, after the bearing is temporarily assembled, a portion of the yoke (110; 210) around the through-hole, and pressing the bearing deeper into the through-hole with a clinched portion formed by the clinching to press-fit the bearing to a second position located deeper than the first position in the through-hole. temporarily assembling a bearing, which supports a shaft portion of a joint spider such that the shaft portion is rotatable, with respect to a through-hole and the shaft portion by press-fitting the bearing to a first position in the through-hole of a yoke (110; 210); and clinching, after the bearing is temporarily assembled, a portion of the yoke (110; 210) around the through-hole, and pressing the bearing deeper into the through-hole with a clinched portion formed by the clinching to press-fit the bearing to a second position located deeper than the first position in the through-hole.