mhurhangee/ep-ind-claims huggingface dataset:
A transfer state inspection system comprising: a camera configured to capture a transfer state of a transfer material of any of solder, flux, conductive paste, or adhesive transferred to multiple terminals (41, 42) on a lower surface of an electronic component; an image processing section configured to process an image captured by the camera to recognize the transfer state of the transfer material such that the transfer state inspection system inspects the transfer state of the transfer material based on a recognition result of the image processing section; an inspection target specifying section configured to specify whether inspection is necessary for at least a portion of the terminals (41, 42) among the multiple terminals (41, 42) on the lower surface of the electronic component via an operation from an operator or a production program, wherein inspection is specified as unnecessary for terminals (41, 42) for which inspection of the transfer state of the transfer material will be unstable; and an inspection executing section configured to not inspect the transfer state of the transfer material for terminals (41, 42) specified as unnecessary to be inspected by the inspection target specifying section among the multiple terminals (41, 42) on the lower surface of the electronic component, and to inspect the transfer state of the transfer material only for other terminals (41, 42). a camera configured to capture a transfer state of a transfer material of any of solder, flux, conductive paste, or adhesive transferred to multiple terminals (41, 42) on a lower surface of an electronic component; an image processing section configured to process an image captured by the camera to recognize the transfer state of the transfer material such that the transfer state inspection system inspects the transfer state of the transfer material based on a recognition result of the image processing section; an inspection target specifying section configured to specify whether inspection is necessary for at least a portion of the terminals (41, 42) among the multiple terminals (41, 42) on the lower surface of the electronic component via an operation from an operator or a production program, wherein inspection is specified as unnecessary for terminals (41, 42) for which inspection of the transfer state of the transfer material will be unstable; and an inspection executing section configured to not inspect the transfer state of the transfer material for terminals (41, 42) specified as unnecessary to be inspected by the inspection target specifying section among the multiple terminals (41, 42) on the lower surface of the electronic component, and to inspect the transfer state of the transfer material only for other terminals (41, 42).
A battery apparatus comprising: a plurality of battery packs connected in parallel and comprising a first battery pack and a second battery pack; a plurality of current sensors comprising a first current sensor that measures a current of the first battery pack and a second current sensor that measures a current of the second battery pack; the battery apparatus is characterised by a processing circuitry that diagnoses the first current sensor and the second current sensor based on a first ratio and a second ratio, the first ratio corresponding to a ratio between a current of the first battery pack and a current of the second battery pack that are calculated based on resistances or capacities of the plurality of battery packs, and the second ratio corresponding to a ratio between the current of the first battery pack and the current of the second battery pack that are measured by the plurality of current sensors. a plurality of battery packs connected in parallel and comprising a first battery pack and a second battery pack; a plurality of current sensors comprising a first current sensor that measures a current of the first battery pack and a second current sensor that measures a current of the second battery pack; the battery apparatus is characterised by a processing circuitry that diagnoses the first current sensor and the second current sensor based on a first ratio and a second ratio, the first ratio corresponding to a ratio between a current of the first battery pack and a current of the second battery pack that are calculated based on resistances or capacities of the plurality of battery packs, and the second ratio corresponding to a ratio between the current of the first battery pack and the current of the second battery pack that are measured by the plurality of current sensors.
A sweetener composition consisting of a mixture of Rebaudioside A and processed Rebaudioside B, wherein the level of processed Rebaudioside B in the steviol glycoside blend ranges from 10% to 26% by weight of the steviol glycoside blend, wherein the steviol glycoside blend is made by a process comprising the steps of: a. combining a Rebaudioside B composition with water at a ratio of about 1:1 to form a mixture; b. increasing the temperature of the mixture by a gradient heating method comprising heating the mixture at a rate of 1°C/min; c. holding the mixture at an elevated temperature of 110°C-140°C for 0-120 min; d. decreasing the temperature of the mixture to room temperature at a gradient of 1°C/min to obtain a Rebaudioside B composition solution; e. spray drying the Rebaudioside B composition solution to obtain the processed Rebaudioside B composition; and f. mixing the processed Rebaudioside B composition with Rebaudioside A. a. combining a Rebaudioside B composition with water at a ratio of about 1:1 to form a mixture; b. increasing the temperature of the mixture by a gradient heating method comprising heating the mixture at a rate of 1°C/min; c. holding the mixture at an elevated temperature of 110°C-140°C for 0-120 min; d. decreasing the temperature of the mixture to room temperature at a gradient of 1°C/min to obtain a Rebaudioside B composition solution; e. spray drying the Rebaudioside B composition solution to obtain the processed Rebaudioside B composition; and f. mixing the processed Rebaudioside B composition with Rebaudioside A.
Method for testing an electric-arc protection device, the electric-arc protection device comprising a measurement chain, the measurement chain comprising a first winding for measuring of a current-measurement transformer, the method for testing comprising a phase of testing the electric-arc protection with steps of injecting a test signal into the electric-arc signal processing and steps of processing said test signal, comprising: - at least one step of injecting at least one test signal (SF1, SF2, SF3) at at least one frequency (F1, F2, F3) into a second winding for testing of the current-measurement transformer during at least one preset duration (T1, T2, T3), a total test duration comprising at least the preset duration (T1, T2, T3) being shorter than a no-trigger time, - at least one monitoring step (52, 53, 54, 71, 74, 77) in order to monitor, during the injection of said at least one signal (SF1, SF2, SF3), at least one test signal filtered and processed by the measurement chain and/or protection functions, and - a step of determining the state of the test of the electric-arc protection, the state of the test of the electric-arc protection being negative is no test signal is correctly processed by the measurement chain. - at least one step of injecting at least one test signal (SF1, SF2, SF3) at at least one frequency (F1, F2, F3) into a second winding for testing of the current-measurement transformer during at least one preset duration (T1, T2, T3), a total test duration comprising at least the preset duration (T1, T2, T3) being shorter than a no-trigger time, - at least one monitoring step (52, 53, 54, 71, 74, 77) in order to monitor, during the injection of said at least one signal (SF1, SF2, SF3), at least one test signal filtered and processed by the measurement chain and/or protection functions, and - a step of determining the state of the test of the electric-arc protection, the state of the test of the electric-arc protection being negative is no test signal is correctly processed by the measurement chain.
A shaping method to plastically deform a flexible conductive element comprising at least one insulating layer and at least one conductive track fixed to the at least one insulating layer, wherein there is provided a device, having an outer surface destined to come in contact with the flexible conductive element, and configured to expand the volume thereof, wherein the method comprises the steps of a) arranging the flexible conductive element at least partially around said device, b) expanding the volume of the device up to a predetermined value, whereby at least one portion of the flexible conductive element which is in contact with the device during the expansion of the device is plastically deformed, c) separating the flexible conductive element from the device. wherein there is provided a device, having an outer surface destined to come in contact with the flexible conductive element, and configured to expand the volume thereof, wherein the method comprises the steps of a) arranging the flexible conductive element at least partially around said device, b) expanding the volume of the device up to a predetermined value, whereby at least one portion of the flexible conductive element which is in contact with the device during the expansion of the device is plastically deformed, c) separating the flexible conductive element from the device. a) arranging the flexible conductive element at least partially around said device, b) expanding the volume of the device up to a predetermined value, whereby at least one portion of the flexible conductive element which is in contact with the device during the expansion of the device is plastically deformed, c) separating the flexible conductive element from the device.
A method for channel estimation regarding multi-path characteristics of electromagnetic wave between a sender and a receiver by using a narrowband chirp-shift-keying signal, the method comprising the steps of: (a) multiplying a received composite signal by the narrowband chirp-shift-keying signal generated by the receiver and outputting a sum of individual frequency components resulting from difference in distances of multiple paths for each of up-chirp and down-chirp signal portions, wherein the narrowband chirp-shift-keying signal is a narrowband signal generated by repeating up-chirp signals and down-chirp signals along an axis of time, and the received composite signal being formed by superimposing and adding the narrowband chirp-shift-keying signals sent at a transmission antenna of the sender and received at a reception antenna of the receiver via a multi-path channel; (b) multipliying the outputted sum of individual frequency components of the up-chirp signal portions by the outputted sum of individual frequency components of the down-chirp signal portions to thereby obtain a frequency deviation unbalance; (c) compensating for the sum of individual frequency components by using the frequency deviation unbalance; and (d) decomposing the compensated sum of individual frequency components into individual multi-path signals by using a frequency analysis method; and (e) extracting an attenuation component α i and a time delay component τ i caused by the multi-path channel from the individual multi-path signals by using a size of frequency components of each frequency. (a) multiplying a received composite signal by the narrowband chirp-shift-keying signal generated by the receiver and outputting a sum of individual frequency components resulting from difference in distances of multiple paths for each of up-chirp and down-chirp signal portions, wherein the narrowband chirp-shift-keying signal is a narrowband signal generated by repeating up-chirp signals and down-chirp signals along an axis of time, and the received composite signal being formed by superimposing and adding the narrowband chirp-shift-keying signals sent at a transmission antenna of the sender and received at a reception antenna of the receiver via a multi-path channel; (b) multipliying the outputted sum of individual frequency components of the up-chirp signal portions by the outputted sum of individual frequency components of the down-chirp signal portions to thereby obtain a frequency deviation unbalance; (c) compensating for the sum of individual frequency components by using the frequency deviation unbalance; and (d) decomposing the compensated sum of individual frequency components into individual multi-path signals by using a frequency analysis method; and (e) extracting an attenuation component α i and a time delay component τ i caused by the multi-path channel from the individual multi-path signals by using a size of frequency components of each frequency.
Cutting-off machine for cutting logs of sheet material, comprising at least one cutting blade placed on a plane perpendicular to the axis of the logs, in order to perform transverse cuts over the same and produce rolls of smaller length than the logs, characterised in that said at least one cutting blade is a rotating blade, with which is associated a sonotrode of an ultrasonic device apt to generate a vibrating force on the blade.
A microporous crystalline AlPO-77 material comprising a three-dimensional framework of at least EO 4/2 - and PO 4/2 + tetrahedral units and optionally, at least one of [M 2+ O 4/2] 2- and SiO 4/2 tetrahedral units and an empirical composition in the as-synthesized form and anhydrous basis expressed by an empirical formula of: R + r M m 2+ EP x Si y O z where M is at least one metal cation of valence +2 selected from the group consisting of Be 2+, Mg 2+, Zn 2+, Co 2+, Mn 2+, Fe 2+, Ni 2+, "m" is the mole ratio of M to E and varies from 0 to 1.0, and R is an organoammonium cation, "r" is the mole ratio of R to E and has a value of 0.1 to 2.5, E is aluminum, "x" is mole ratio of P to E and varies from 0.5 to 2.0, "y" is the mole ratio of Si to E and varies from 0 to 2.0, and "z" is the mole ratio of O to E and has a value determined by the equation: z = 2 • m + r + 3 + 5 • x + 4 • y / 2 wherein said material is characterized in that it has the x-ray diffraction pattern having at least the d-spacings and intensities set forth in Table 2: Table 2 2-Theta d(Å) Intensity 8.55-8.87 10.33-9.96 w 10.76-10.89 8.21-8.11 s-vs 11.16-11.35 7.92-7.79 w-m 13.44-13.58 6.58-6.51 m 15.97-16.13 5.54-5.49 w 16.85-17.11 5.26-5.18 m-s 17.26-17.43 5.13-5.08 vs 17.54-17.72 5.05-5.00 m-s 20.28-20.50 4.37-4.32 s 20.96-21.10 4.23-4.21 m 21.63-21.82 4.10-4.07 s 21.95-22.13 4.04-4.01 vs 22.55-22.80 3.94-3.90 m 23.41-23.59 3.80-3.77 m-s 24.44-24.66 3.64-3.61 m 25.56-25.78 3.48-3.45 vw-w 27.10-27.35 3.29-3.27 m-s 27.47-27.79 3.24-3.21 s-vs 28.00-28.28 3.18-3.15 m-s 29.22-29.45 3.05-3.03 w 30.72-31.00 2.91-2.88 m 32.27-32.57 2.77-2.75 m-s 33.68-34.04 2.66-2.63 m-s 34.11-34.37 2.63-2.61 m-s 36.79-37.13 2.44-2.42 vw-w and wherein after being calcined or calcined and activated, said material comprises a three-dimensional framework of at least EO 4/2 - and PO 4/2 + tetrahedral units, and furthermore, at least one of [M 2+ O 4/2] 2- and SiO 4/2 tetrahedral units and an empirical composition on an anhydrous basis expressed by an empirical formula of: H w M m 2+ EP x Si y O z where H is a proton, "w" is the mole ratio of H to E and varies from 0 to 2.5, M is at least one metal cation of valence +2 selected from the group consisting of Be 2+, Mg 2+, Zn 2+, Co 2+, Mn 2+, Fe 2+, Ni 2+, "m" is the mole ratio of M to E and varies from 0 to 1.0, E is aluminum, "x" is mole ratio of P to E and varies from 0.5 to 2.0, "y" is the mole ratio of Si to E and varies from 0 to 2.0 and "z" is the mole ratio of O to E and has a value determined by the equation: z = w + 2 • m + 3 + 5 • x + 4 • y / 2 and wherein said material has a x-ray diffraction pattern having at least the d-spacings and intensities set forth in Table 1: Table 1 2-Theta d(Å) Intensity 8.73-9.35 10.12-9.48 w-m 11.06-11.55 7.99-7.65 m-s 13.60-13.84 6.50-6.39 m-vs 14.11-14.71 6.27-6.01 w-s 17.41-17.93 5.09-4.94 s 20.89-21.57 4.25-4.11 m-s 22.27-22.67 3.99-3.92 s 24.55-24.82 3.62-3.58 w-m 25.22-25.53 3.53-3.48 w-m 26.63-27.40 3.34-3.25 w-m 28.45-28.83 3.13-3.09 s 29.02-29.61 3.07-3.01 m-s 32.65-32.80 2.74-2.73 w 33.02-33.18 2.71-2.70 w-m 34.91-35.34 2.57-2.54 m
A synchronizing ring for a synchronizer of a transmission, the synchronizing ring being an inner ring provided with a plurality of axially extending cams for engagement with a further synchronizing ring, characterized in that an axial surface of each axial cam is provided with at least one groove for transportation of oil, the axial surface of each axial cam being provided with a plurality of said groove for transportation of oil.
A method for applying writings, graphics and/or other markings to frozen vials or ampoules, while maintaining the integrity of the biological material contained therein, comprising the following steps: a. providing a plurality of biological material-filled vials, which are held at about -70 °C to about -196 °C, and to which blank laser-ablatable labels had previously been applied; b. loading the plurality of vials into a temperature-controlled marking enclosure, which is substantially filled with dry nitrogen gas to reduce or eliminate the presence of moisture inside the enclosure; c. conveying the vials beneath marking lasers; d. applying laser light to the laser-ablatable labels; e. determining whether the vials have been marked to within required specifications, thereby applying writings, graphics and/or other markings to frozen vials, while maintaining the integrity of the biological material contained therein. a. providing a plurality of biological material-filled vials, which are held at about -70 °C to about -196 °C, and to which blank laser-ablatable labels had previously been applied; b. loading the plurality of vials into a temperature-controlled marking enclosure, which is substantially filled with dry nitrogen gas to reduce or eliminate the presence of moisture inside the enclosure; c. conveying the vials beneath marking lasers; d. applying laser light to the laser-ablatable labels; e. determining whether the vials have been marked to within required specifications, thereby applying writings, graphics and/or other markings to frozen vials, while maintaining the integrity of the biological material contained therein.
A method of shaping hair comprising the following sequential steps: (i) topically applying to dry hair a hair treatmentcomposition comprising from 0.1 to 25wt% dispersed zinc oxide by weight based on the total weight of the hair treatment composition; (ii) mechanically shaping the treated hair; (iii) drying the shaped hair; (iv) washing the dried hair at least once, and (v) mechanically re-shaping the washed hair. (i) topically applying to dry hair a hair treatmentcomposition comprising from 0.1 to 25wt% dispersed zinc oxide by weight based on the total weight of the hair treatment composition; (ii) mechanically shaping the treated hair; (iii) drying the shaped hair; (iv) washing the dried hair at least once, and (v) mechanically re-shaping the washed hair.
A system for individualization of an object by laser, comprising: at least one object to be marked, comprising a reference mark having conversion material, and a device for individualization by laser, having: a laser source for generating a laser beam, a two-coordinate deflection device for targeted deflection of the laser beam by different spatial angles, a control device for controlling the laser source and the two-coordinate deflection device; and a table having a target marking plane for receiving the object to be marked by the laser beam, wherein the control device is adapted to control the laser source such that at least one laser beam with a first scanning intensity and a second marking intensity can be generated, wherein the scanning intensity is smaller than the marking intensity and wherein upon irradiation of the object with the scanning intensity no marking of the object takes place, wherein the device comprises a light-sensitive detector adapted for detecting luminescence radiation emitted from the object to be marked, wherein the light-sensitive detector is connected to the control device for associating a controlled direction of the laser beam to a detection of said luminescence radiation. at least one object to be marked, comprising a reference mark having conversion material, and a device for individualization by laser, having: a laser source for generating a laser beam, a two-coordinate deflection device for targeted deflection of the laser beam by different spatial angles, a control device for controlling the laser source and the two-coordinate deflection device; and a table having a target marking plane for receiving the object to be marked by the laser beam, a laser source for generating a laser beam, a two-coordinate deflection device for targeted deflection of the laser beam by different spatial angles, a control device for controlling the laser source and the two-coordinate deflection device; and a table having a target marking plane for receiving the object to be marked by the laser beam, wherein the control device is adapted to control the laser source such that at least one laser beam with a first scanning intensity and a second marking intensity can be generated, wherein the scanning intensity is smaller than the marking intensity and wherein upon irradiation of the object with the scanning intensity no marking of the object takes place, wherein the device comprises a light-sensitive detector adapted for detecting luminescence radiation emitted from the object to be marked, wherein the light-sensitive detector is connected to the control device for associating a controlled direction of the laser beam to a detection of said luminescence radiation.