mhurhangee/ep-ind-claims huggingface dataset:
A grease composition for a speed reducer part of an on-vehicle electric component, the grease composition containing a base oil and a thickener, wherein the base oil is a mixed oil of poly-α-olefin and mineral oil, wherein the base oil has a kinematic viscosity of 4 to 19 mm 2 /s at 100°C and a pour point of -30°C or lower, the thickener is a mixture of a diurea compound expressed by formula and a diurea compound expressed by formula R 1 -NHCONH-R 2 -NHCONH-R 1 R 3 -NHCONH-R 2 -NHCONH-R 3 wherein R 1 is a straight-chain alkyl group having 8 or 18 carbon atoms, R 2 is a divalent aromatic hydrocarbon group having 6 to 15 carbon atoms, and R 3 is an aryl group having 6 to 7 carbon atoms, and a penetration of the grease composition as measured according to JIS K2220 7 is 235 to 265. the base oil is a mixed oil of poly-α-olefin and mineral oil, wherein the base oil has a kinematic viscosity of 4 to 19 mm 2 /s at 100°C and a pour point of -30°C or lower, the thickener is a mixture of a diurea compound expressed by formula and a diurea compound expressed by formula R 1 -NHCONH-R 2 -NHCONH-R 1 R 3 -NHCONH-R 2 -NHCONH-R 3 wherein R 1 is a straight-chain alkyl group having 8 or 18 carbon atoms, R 2 is a divalent aromatic hydrocarbon group having 6 to 15 carbon atoms, and R 3 is an aryl group having 6 to 7 carbon atoms, and a penetration of the grease composition as measured according to JIS K2220 7 is 235 to 265.
A system comprising: a printhead optical density controller configured, for each of a plurality of printheads, to correlate a series of printhead waveforms input to a printhead with a series of optical density values output by the printhead in response to the printhead waveforms, wherein a parameter of the printhead waveforms input to the printhead varies over a range of values for the series of the printhead waveforms; the printhead optical density controller further configured, for each of the printheads, to determine a single target optical density for the printheads based on an average optical density of the printheads, to determine a functional relationship between the parameter of the printhead waveforms input to the printhead and the optical density values output by the printhead, and to determine a target printhead waveform parameter for the printhead based on the single target optical density input to an inverse of the functional relationship, and the printhead optical density controller further configured to update printhead settings to include information of the target printhead waveform parameter determined for each of the printheads for applying to the printheads to output ink at consistent optical density. a printhead optical density controller configured, for each of a plurality of printheads, to correlate a series of printhead waveforms input to a printhead with a series of optical density values output by the printhead in response to the printhead waveforms, wherein a parameter of the printhead waveforms input to the printhead varies over a range of values for the series of the printhead waveforms; the printhead optical density controller further configured, for each of the printheads, to determine a single target optical density for the printheads based on an average optical density of the printheads, to determine a functional relationship between the parameter of the printhead waveforms input to the printhead and the optical density values output by the printhead, and to determine a target printhead waveform parameter for the printhead based on the single target optical density input to an inverse of the functional relationship, and the printhead optical density controller further configured to update printhead settings to include information of the target printhead waveform parameter determined for each of the printheads for applying to the printheads to output ink at consistent optical density.
A computer-implemented method for identifying vulnerabilities for virtualized execution instances to escape their operating environment and threaten a host environment, the method comprising: identifying a virtualized execution instance configured for deployment on a host in a virtual computing environment; performing a privileged configuration inspection for the virtualized execution instance, the privileged configuration inspection determining a probability of privilege risk by analyzing whether the virtualized execution instance has been configured with one or more attributes that can permit operation of the virtualized execution instance to perform operations, beyond an environment of the virtualized execution instance, on an environment of the host, wherein the one or more attributes include one or more configuration parameters for the virtualized execution instance, wherein the probability of privilege risk is based on weights or scores of the one or more configuration parameters; and determining, based on the privileged configuration inspection and the probability of privilege risk, a control action in reaction to the probability of privilege risk, the control action being determined to control the virtualized execution instance's ability to perform operations on the environment of the host. identifying a virtualized execution instance configured for deployment on a host in a virtual computing environment; performing a privileged configuration inspection for the virtualized execution instance, the privileged configuration inspection determining a probability of privilege risk by analyzing whether the virtualized execution instance has been configured with one or more attributes that can permit operation of the virtualized execution instance to perform operations, beyond an environment of the virtualized execution instance, on an environment of the host, wherein the one or more attributes include one or more configuration parameters for the virtualized execution instance, wherein the probability of privilege risk is based on weights or scores of the one or more configuration parameters; and determining, based on the privileged configuration inspection and the probability of privilege risk, a control action in reaction to the probability of privilege risk, the control action being determined to control the virtualized execution instance's ability to perform operations on the environment of the host.
An optical coherence tomographic imaging apparatus, in which light from a low coherent light source (11, 101) is split into a measuring beam (13, 106) and a reference beam (15, 105), the measuring beam is guided to an inspection object (12, 107), and a return beam of the measuring beam (13, 106) reflected or scattered by the inspection object (12, 107) and the reference beam (15, 105) reflected by a reference portion (14, 114-1 to 114-5) are used to image a tomographic image of the inspection object (12, 107), the apparatus comprising the low coherent light source (11, 101); a splitting portion (23, 103-1) for splitting light from the low coherent light source (11, 101) into the measuring beam (13, 106) and the reference beam (15, 105); a return beam splitting unit (103-3, 131-3) for splitting the return beam into a first return beam and a second return beam; a first detection unit (19, 138) for detecting an intensity of the first return beam from the return beam splitting unit (103-3, 131-3); a beam diameter adjusting unit (21, 136, 236) for adjusting a beam diameter of the measuring beam (13, 106) from a first beam diameter to a second beam diameter larger than the first beam diameter; a condensing position adjusting unit (22, 117-2) for adjusting a condensing position of the measuring beam (13, 106) on the inspection object (12, 107) with the beam diameter of the measuring beam (13, 106) adjusted by the beam diameter adjusting unit (21, 136, 236) based on the detected intensity of the first return beam by the first detection unit (19, 138); a second detection unit (18, 122) for detecting the intensity of a combined beam obtained by combining the second return beam from the return beam splitting unit (103-3, 131-3) with the reflected beam of the reference beam reflected by the reference portion (14, 114-1 to 114-5); an optical path length adjusting unit for adjusting an optical path length of the reference beam (15, 105) with an optical path length of the measuring beam (13, 106) adjusted by the condensing position adjusting unit (22,117-2) based on the detected intensity of the combined beam by the second detection unit (18, 122).
An ophthalmological apparatus comprising: image acquisition means for acquiring images (Dl, Dh) of different magnifications; decision means for deciding, based on at least the acquired images (Dl, Dh) or capture conditions of the acquired images (Dl, Dh), a method for capturing an image (Dm) of an intermediate magnification that is between the magnifications of the acquired images (Dl, Dh); and alignment means for aligning the acquired images (Dl, Dh) based on the image (Dm) of intermediate magnification. image acquisition means for acquiring images (Dl, Dh) of different magnifications; decision means for deciding, based on at least the acquired images (Dl, Dh) or capture conditions of the acquired images (Dl, Dh), a method for capturing an image (Dm) of an intermediate magnification that is between the magnifications of the acquired images (Dl, Dh); and alignment means for aligning the acquired images (Dl, Dh) based on the image (Dm) of intermediate magnification.
Displacement pump with a delivery chamber, which is connected to a pressure connection and a suction connection, a displacement element determining the volume of the delivery chamber, said displacement element being able to be moved back and forth between a first position, in which the delivery chamber has a smaller volume, and a second position, in which the delivery chamber has a larger volume, wherein the pressure connection is connected to the delivery chamber by a pressure valve and the suction connection is connected to the delivery chamber by a suction valve, wherein with the pressure valve closed, a backflow channel (13, 14) connects the delivery chamber and pressure connection, through which medium can enter the delivery chamber and/or gas can escape from the delivery chamber, characterised in that the pressure valve has the backflow channel (13, 14).
A unit for measuring the pressure drop in a smoking article, comprising: - a conveyor comprising a plurality of housing seats configured to receive and transversely feed a plurality of rod-shaped smoking articles along a feed path; - a fixed measuring device disposed on the feed path and configured to measure a value of pressure drop in each article, wherein the measuring device comprises at least one air loading slot (5a, 5b) connected or connectable to a compressed air source (6a, 6b); - connecting means disposed on the conveyor and configured to connect the at least one air loading slot (5a, 5b) sequentially to one of the housing seats in order to feed an air flow to the articles; characterized in that the measuring device comprises at least two air loading slots (5a, 5b) connected or connectable to respective, distinct compressed air sources (6a, 6b) and in that the connecting means are configured to alternately connect consecutive housing seats (3a, 3b) to different air loading slots (5a, 5b). - a conveyor comprising a plurality of housing seats configured to receive and transversely feed a plurality of rod-shaped smoking articles along a feed path; - a fixed measuring device disposed on the feed path and configured to measure a value of pressure drop in each article, wherein the measuring device comprises at least one air loading slot (5a, 5b) connected or connectable to a compressed air source (6a, 6b); - connecting means disposed on the conveyor and configured to connect the at least one air loading slot (5a, 5b) sequentially to one of the housing seats in order to feed an air flow to the articles; characterized in that the measuring device comprises at least two air loading slots (5a, 5b) connected or connectable to respective, distinct compressed air sources (6a, 6b) and in that the connecting means are configured to alternately connect consecutive housing seats (3a, 3b) to different air loading slots (5a, 5b).
A computer-implemented method for digitally planning the manufacturing of at least two digital artificial teeth (2; 202) provided in a digitally designed denture comprising a digital denture base (1; 200) and the least two digital artificial teeth (2; 202), wherein the method comprises the steps of: - obtaining the digitally designed denture comprising the digital denture base (1; 200) and the at least two digital artificial teeth (2; 202) arranged in the digital denture base (1; 200) in a desired relative arrangement between the at least two digital artificial teeth (2; 202), - digitally planning the manufacturing of at least two artificial teeth (2; 202), represented by the at least two digital artificial teeth (2; 202), so that they are attached to a common placement support (3; 203) for maintaining the at least two artificial teeth (2; 202) in the desired relative arrangement, characterized in that a digital common placement support (3; 203) representing the common placement support (3; 203) and the at least two digital artificial teeth (2; 202) are digitally designed as one unit and in that the digital common placement support (3; 203) is connected to the occlusal or lingual surfaces of the at least two digital artificial teeth (2; 202). - obtaining the digitally designed denture comprising the digital denture base (1; 200) and the at least two digital artificial teeth (2; 202) arranged in the digital denture base (1; 200) in a desired relative arrangement between the at least two digital artificial teeth (2; 202), - digitally planning the manufacturing of at least two artificial teeth (2; 202), represented by the at least two digital artificial teeth (2; 202), so that they are attached to a common placement support (3; 203) for maintaining the at least two artificial teeth (2; 202) in the desired relative arrangement, characterized in that a digital common placement support (3; 203) representing the common placement support (3; 203) and the at least two digital artificial teeth (2; 202) are digitally designed as one unit and in that the digital common placement support (3; 203) is connected to the occlusal or lingual surfaces of the at least two digital artificial teeth (2; 202).
A coating film comprising: a metal oxide; a polymer particle; and an alkoxysilane wherein the metal oxide is a colloidal silica and the coating film has a ten-point average roughness, determined in accordance with JIS B 0601, of 5 nm or more and 300 nm or less. a metal oxide; a polymer particle; and an alkoxysilane wherein the metal oxide is a colloidal silica and the coating film has a ten-point average roughness, determined in accordance with JIS B 0601, of 5 nm or more and 300 nm or less.
A light source apparatus of diameter measuring instrument, comprising: a housing, a rotary chassis and a driving mechanism, wherein the driving mechanism is arranged to rotate the rotary chassis, wherein a through-hole for wire rod material to pass through is provided on the rotary chassis which is rotarily supported in the housing; a pair of light source collimating lenses and light source lamps, which are disposed on the rotary chassis and configured to generate two collimated parallel beams; and a reflective mirror having two reflective sheets (30a, 30b) disposed on the rotary chassis, wherein the two collimated parallel beams are respectively incident upon the two reflective sheets (30a, 30b) of the reflective mirror, and the collimated parallel beams emanated from the two reflective sheets (30a, 30b) are incident upon the wire od material to be measured, which is passed in use, through the middle of the through-hole; wherein an illuminated region created by superimposing the collimated parallel beams emanated from the two reflective sheets (30a, 30b) in a radial direction of the wire rod material is larger than an illuminated region created by a parallel beam emanated from only one of the two individual reflective sheets (30a, 30b) in the radial direction. a housing, a rotary chassis and a driving mechanism, wherein the driving mechanism is arranged to rotate the rotary chassis, wherein a through-hole for wire rod material to pass through is provided on the rotary chassis which is rotarily supported in the housing; a pair of light source collimating lenses and light source lamps, which are disposed on the rotary chassis and configured to generate two collimated parallel beams; and a reflective mirror having two reflective sheets (30a, 30b) disposed on the rotary chassis, wherein the two collimated parallel beams are respectively incident upon the two reflective sheets (30a, 30b) of the reflective mirror, and the collimated parallel beams emanated from the two reflective sheets (30a, 30b) are incident upon the wire od material to be measured, which is passed in use, through the middle of the through-hole; wherein an illuminated region created by superimposing the collimated parallel beams emanated from the two reflective sheets (30a, 30b) in a radial direction of the wire rod material is larger than an illuminated region created by a parallel beam emanated from only one of the two individual reflective sheets (30a, 30b) in the radial direction.
A method for manufacturing a security pigment of core-shell particles, comprising a solid core based on a thermoplastic polymer, a shell based on a condensation polymer and an organic or organometallic feature substance present in dissolved or finely distributed form in the core, having a) the step of dissolving the feature substance together with the thermoplastic polymer in an organic solvent and dispersing the obtained solution in water or an aqueous solution by means of a surfactant; b) supplying at a certain pH value the prepolymer units to be polymerized in a condensation reaction, in order to achieve the condensation of the shell-forming polymer around the dispersed droplets of the organic solvent; c) removing the organic solvent in order to form the core-shell particles with a solid core; and optionally d) reinforcing the shell of the core-shell particles by adding further prepolymer units to be polymerized. a) the step of dissolving the feature substance together with the thermoplastic polymer in an organic solvent and dispersing the obtained solution in water or an aqueous solution by means of a surfactant; b) supplying at a certain pH value the prepolymer units to be polymerized in a condensation reaction, in order to achieve the condensation of the shell-forming polymer around the dispersed droplets of the organic solvent; c) removing the organic solvent in order to form the core-shell particles with a solid core;
A computing system comprising: a transmitter to output a high dynamic range, HDR, image; a memory including a set of instructions; and a processor, wherein when executed by the processor, the instructions cause the system to: partition the HDR image into a plurality of regions including brighter regions and darker regions, determine, on a per region basis, a luminance level of the HDR image, and select, on the per region basis, an encoding amount for each region in the plurality of regions, including an increase in the encoding amount if the luminance level does not exceed a first threshold, wherein the increased encoding amount is to increase image compression, and a decrease in the encoding amount if the luminance level exceeds a second threshold, wherein the second threshold is to be greater than the first threshold, wherein the decreased encoding amount is to decrease image compression, wherein the encoding amounts of the brighter regions are less than the encoding amounts of the darker regions. a transmitter to output a high dynamic range, HDR, image; a memory including a set of instructions; and a processor, wherein when executed by the processor, the instructions cause the system to: partition the HDR image into a plurality of regions including brighter regions and darker regions, determine, on a per region basis, a luminance level of the HDR image, and select, on the per region basis, an encoding amount for each region in the plurality of regions, including an increase in the encoding amount if the luminance level does not exceed a first threshold, wherein the increased encoding amount is to increase image compression, and a decrease in the encoding amount if the luminance level exceeds a second threshold, wherein the second threshold is to be greater than the first threshold, wherein the decreased encoding amount is to decrease image compression, wherein the encoding amounts of the brighter regions are less than the encoding amounts of the darker regions. partition the HDR image into a plurality of regions including brighter regions and darker regions, determine, on a per region basis, a luminance level of the HDR image, and select, on the per region basis, an encoding amount for each region in the plurality of regions, including an increase in the encoding amount if the luminance level does not exceed a first threshold, wherein the increased encoding amount is to increase image compression, and a decrease in the encoding amount if the luminance level exceeds a second threshold, wherein the second threshold is to be greater than the first threshold, wherein the decreased encoding amount is to decrease image compression, wherein the encoding amounts of the brighter regions are less than the encoding amounts of the darker regions.
A frequency doubling or wave mixing digital laser configured to produce second harmonic generation of higher-order laser modes, the laser having an associated single resonator cavity, the laser apparatus including: a laser pump; a rear optical element or rear optical elements; a Brewster window configured to control polarisation; a laser generator medium; an output coupler located inside the resonator cavity; a nonlinear crystal located inside the resonator cavity; and a spatial light modulator that is configured to control one or more of the phase and the amplitude of the fundamental laser beam to a high-order, wherein the spatial light modulator is configured to modulate the high-order fundamental laser beam to achieve phase-matching inside the nonlinear crystal for the generation of the frequency doubled or mixed high-order laser beam. a laser pump; a rear optical element or rear optical elements; a Brewster window configured to control polarisation; a laser generator medium; an output coupler located inside the resonator cavity; a nonlinear crystal located inside the resonator cavity; and a spatial light modulator that is configured to control one or more of the phase and the amplitude of the fundamental laser beam to a high-order, wherein the spatial light modulator is configured to modulate the high-order fundamental laser beam to achieve phase-matching inside the nonlinear crystal for the generation of the frequency doubled or mixed high-order laser beam.
A method for controlling a delivery of driving torque of a combustion engine of an agricultural tractor comprising a first step (Step 1) of monitoring a speed of said engine and whenever said speed is stable around any one stable speed value (Step 2 = YES) the method comprising a second automatic step of maintaining it stable by compensating (Step 3) a load variation applied to the engine, wherein said speed is stable around said stable speed value if a variation of said speed during a time interval having an amplitude of seconds is within 5 rpm in absolute value with respect to said stable speed value, wherein said compensation step consists in generating a modified torque curve starting from a rated torque curve at least by shifting it downwards for positive speed values -right-hand branch -with respect to said stable speed value (Sp), obtaining said modified torque curve, spaced from the rated torque curve by a non-null distance, wherein the delivery of driving torque is controlled according to said modified torque curve.