mhurhangee/ep-ind-claims huggingface dataset:
A piezoelectric element comprising: a first electrode formed on a substrate; a piezoelectric layer formed on the first electrode and composed of a complex oxide having a perovskite structure containing potassium, sodium (Na), niobium (Nb), and manganese (Mn), wherein the perovskite structure is represented by a general formula of ABO 3 and wherein an A-site element is present in excess relative to a B-site element, wherein the amount of the excess is 4 to 6%; and a second electrode formed on the piezoelectric layer, wherein the manganese includes divalent manganese (Mn 2+), trivalent manganese(Mn 3+), and tetravalent manganese (Mn 4+); a molar ratio of the divalent manganese to a sum of the trivalent manganese and the tetravalent manganese (Mn 2+ /(Mn 3+ + Mn 4+)) is 1 or more and 10 or less; characterized in that a molar ratio of the potassium to the sodium (K/Na) at the surface of the piezoelectric layer, measured by X-ray photoelectron spectroscopy, is 0.8 to 1.1. a first electrode formed on a substrate; a piezoelectric layer formed on the first electrode and composed of a complex oxide having a perovskite structure containing potassium, sodium (Na), niobium (Nb), and manganese (Mn), wherein the perovskite structure is represented by a general formula of ABO 3 and wherein an A-site element is present in excess relative to a B-site element, wherein the amount of the excess is 4 to 6%; and a second electrode formed on the piezoelectric layer, wherein the manganese includes divalent manganese (Mn 2+), trivalent manganese(Mn 3+), and tetravalent manganese (Mn 4+); a molar ratio of the divalent manganese to a sum of the trivalent manganese and the tetravalent manganese (Mn 2+ /(Mn 3+ + Mn 4+)) is 1 or more and 10 or less; characterized in that a molar ratio of the potassium to the sodium (K/Na) at the surface of the piezoelectric layer, measured by X-ray photoelectron spectroscopy, is 0.8 to 1.1.
An insect attractive lamp comprising: a) a translucent sleeve made of an ultraviolet light transmissive material and having a surface coated with fluorinated ethylene propylene, said translucent sleeve having opposing ends; b) a pair of connectors (24 and 26) adapted to cap the opposing ends of the sleeve, each connector having a pair of contact pins (31/32 and 33/34), c) a circuit positioned within the translucent sleeve that is (i) electrically coupled to each of the contact pins (31/32 and 33/34), (ii) adapted to convert alternating current to direct current and regulate voltage, and (iii) comprises a controller, and (iv) a plurality of light emitting diodes (LEDs) controlled by the controller, said plurality of LEDs adapted to primarily emit light having a wavelength in the range of 315 to 400 nanometers. a) a translucent sleeve made of an ultraviolet light transmissive material and having a surface coated with fluorinated ethylene propylene, said translucent sleeve having opposing ends; b) a pair of connectors (24 and 26) adapted to cap the opposing ends of the sleeve, each connector having a pair of contact pins (31/32 and 33/34), c) a circuit positioned within the translucent sleeve that is (i) electrically coupled to each of the contact pins (31/32 and 33/34), (ii) adapted to convert alternating current to direct current and regulate voltage, and (iii) comprises a controller, and (iv) a plurality of light emitting diodes (LEDs) controlled by the controller, said plurality of LEDs adapted to primarily emit light having a wavelength in the range of 315 to 400 nanometers.
A recombinant nucleic acid molecule comprising a nucleotide sequence selected from the group consisting of: a) the nucleotide sequence of SEQ ID NO: 1, or a complement thereof; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of any of SEQ ID NO: 2, 3, 4, 5, 6, 7, or 8; and c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 90% sequence identity to the amino acid sequence of SEQ ID NO: 2, 3, 4, 5, 6, 7, or 8, wherein said amino acid sequence has pesticidal activity. a) the nucleotide sequence of SEQ ID NO: 1, or a complement thereof; b) a nucleotide sequence that encodes a polypeptide comprising the amino acid sequence of any of SEQ ID NO: 2, 3, 4, 5, 6, 7, or 8; and c) a nucleotide sequence that encodes a polypeptide comprising an amino acid sequence having at least 90% sequence identity to the amino acid sequence of SEQ ID NO: 2, 3, 4, 5, 6, 7, or 8, wherein said amino acid sequence has pesticidal activity.
A method of manufacturing a battery cell having a structure in which an electrode assembly comprising a positive electrode, a separator, and a negative electrode is mounted in a battery case, and the battery case is sealed by thermal welding, the method comprising: (a) mounting the electrode assembly in a receiving part of the battery case and forming sealed portions at an outer edge of the receiving part by thermal welding; (b) perpendicularly bending the sealed portions and bringing the bent sealed portions into contact with an outer side wall of the receiving part; (c) mounting and fixing the battery case processed at step (b) in a jig provided with a depressed part having a size corresponding to that of the battery case; and (d) injecting a curable material into a space defined between the outer side wall of the receiving part of the battery case and an inner side wall of the depressed part of the jig and curing the injected curable material, wherein - the curable material is injected such that the curable material is applied to an end of each of the sealed portions, and - the curable material is injected such that the curable material surrounds the outer side wall of the battery cell only and the curable material forms an external appearance part of the battery cell. (a) mounting the electrode assembly in a receiving part of the battery case and forming sealed portions at an outer edge of the receiving part by thermal welding; (b) perpendicularly bending the sealed portions and bringing the bent sealed portions into contact with an outer side wall of the receiving part; (c) mounting and fixing the battery case processed at step (b) in a jig provided with a depressed part having a size corresponding to that of the battery case; and (d) injecting a curable material into a space defined between the outer side wall of the receiving part of the battery case and an inner side wall of the depressed part of the jig and curing the injected curable material, wherein - the curable material is injected such that the curable material is applied to an end of each of the sealed portions, and - the curable material is injected such that the curable material surrounds the outer side wall of the battery cell only and the curable material forms an external appearance part of the battery cell. - the curable material is injected such that the curable material is applied to an end of each of the sealed portions, and - the curable material is injected such that the curable material surrounds the outer side wall of the battery cell only and the curable material forms an external appearance part of the battery cell.
A computer-implemented method for performing image or video recognition using a transformer-based machine learning, ML, model, the method comprising: receiving an image depicting at least one feature to be identified, the image comprising a plurality of channels; dividing the received image into a plurality of patches; mixing the channels using a projection of the plurality of patches; shifting a predefined number of channels between patches to generate shifted patches; computing, using the shifted patches, a channel-wise rescaling value and a channel-wise bias value; applying the computed rescaling and bias values to the channels of the shifted patches; and inputting the shifted patches, after applying the rescaling and bias values to the channels and further mixing of the channels using a projection of the shifted patches, into a classifier module of the ML model. receiving an image depicting at least one feature to be identified, the image comprising a plurality of channels; dividing the received image into a plurality of patches; mixing the channels using a projection of the plurality of patches; shifting a predefined number of channels between patches to generate shifted patches; computing, using the shifted patches, a channel-wise rescaling value and a channel-wise bias value; applying the computed rescaling and bias values to the channels of the shifted patches; and inputting the shifted patches, after applying the rescaling and bias values to the channels and further mixing of the channels using a projection of the shifted patches, into a classifier module of the ML model.
A computer-implemented method for computing a place profile, wherein a place profile comprises a statistical description of a given place in terms of a set of classes, the method comprising: providing a geographical definition of a place; retrieving a set of images based on the geographical place definition; with a classifier, generating image-level statistics for the retrieved images in the set, the classifier having been trained to generate image-level statistics for a finite set of classes; and aggregating the image-level statistics to generate a place profile for the geographically-defined place; wherein, the generating of the image-level statistics comprises outputting a score for each retrieved image for each of a set of classes and using the score to generate the statistics, labeling images with a class label where the classifier score for the class exceeds a threshold value and characterised by filtering a class label of a retrieved image based on a computed geographical density of other retrieved images with the same class label, to filter out class labels that are determined to be outliers. providing a geographical definition of a place; retrieving a set of images based on the geographical place definition; with a classifier, generating image-level statistics for the retrieved images in the set, the classifier having been trained to generate image-level statistics for a finite set of classes; and aggregating the image-level statistics to generate a place profile for the geographically-defined place; wherein, the generating of the image-level statistics comprises outputting a score for each retrieved image for each of a set of classes and using the score to generate the statistics, labeling images with a class label where the classifier score for the class exceeds a threshold value and characterised by filtering a class label of a retrieved image based on a computed geographical density of other retrieved images with the same class label, to filter out class labels that are determined to be outliers.
A cleaning system comprising: a robot cleaner including: a dust collecting device having an outlet, and an outlet door configured to open and close the outlet and having a door magnetic body; and a station including: a collecting chamber, a lever device including: a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber. a robot cleaner including: a dust collecting device having an outlet, and an outlet door configured to open and close the outlet and having a door magnetic body; and a dust collecting device having an outlet, and an outlet door configured to open and close the outlet and having a door magnetic body; and a station including: a collecting chamber, a lever device including: a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber. a collecting chamber, a lever device including: a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber. a lever having a lever magnetic body and configured to open the outlet door to allow the collecting chamber and the dust collecting device to communicate with each other while the outlet door to the outlet of the dust collecting device is open due to a magnetic force between the door magnetic body of the outlet door and the lever magnetic body of the lever, and a lever driving source configured to generate power to drive the lever, and a station suction device configured to generate a suction force so that dust in the dust collecting device is accommodated in the collecting chamber.
An exhaust gas cleaning equipment for a diesel engine, comprising a gas scrubber for cleaning exhaust gas whereby the gas scrubber produces polluted scrubber fluid comprising pollutant particles and oil, a scrubber fluid cleaning equipment connected to the gas scrubber for cleaning said polluted scrubber fluid, said scrubber fluid cleaning equipment comprising a centrifugal separator, which centrifugal separator comprises a separation space, and a separator inlet for polluted scrubber fluid extending into said separation space, which scrubber fluid cleaning equipment further comprises means for conducting polluted scrubber fluid from the exhaust gas scrubber to the separator inlet, characterised in that the centrifugal separator is arranged for separating a pollutant phase comprising pollutant particles and oil, and a cleaned scrubber fluid from said polluted scrubber fluid, wherein the centrifugal separator further comprises a rotor enclosing the separation space with a stack of separating discs, a first separator outlet for cleaned scrubber fluid extending from said separation space, and a second separator outlet for said pollutant phase extending from said separation space, and wherein the scrubber fluid cleaning equipment further comprises means for conducting cleaned scrubber fluid from the first separator outlet to the exhaust gas scrubber.
A web funnel for compacting a fiber web, particularly on a draw frame, carding machine, or comber, having an elongated inlet side at which the expanded fiber web enters the web funnel, and an outlet side at which the fiber web exits the web funnel as a fiber bundle, having an outlet opening disposed on the outlet side and having at least one guide surface (5a, 5b, 5c, 5d) for the fiber web disposed between the inlet side and the outlet side in order to guide the fiber web flowing into the web funnel in the direction of the outlet opening and wherein the web funnel is implemented as a base body, having a longitudinal extent in the X-direction and having a height extent in the Z-direction, characterized in that, two steps (6a, 6b, 6c, 6d, 6e) spaced apart in the x-direction and separated from one another are disposed between the guide surface (5a, 5b, 5c, 5d) and the outlet opening wherein these two steps (6a, 6b, 6c, 6d) being arranged at the same level in the z-direction in the direction from the outlet side to the inlet side above the outlet opening, and that at least one intermediate surface (7a, 7b, 7c) is disposed between the steps (6a, 6b, 6c, 6d) and the outlet opening, so that by means of the steps (6a, 6b, 6c, 6d) the fiber web flowing to the outlet opening forms a vortex oriented perpendicular to the direction of motion of the fiber web, which vortex moves over the intermediate surface (7a, 7b, 7c) to the outlet opening.
A messaging method, suitable for a messaging system, the messaging system comprising a first electronic device and a second electronic device, wherein the second electronic device is paired with the first electronic device, wherein the messaging method comprises the following steps: determining a latest messaging task executed on the first electronic device; analysing content of at least one message in the latest messaging task on the first electronic device; determining whether the content of the at least one message matches a predetermined tag corresponding to an application program, wherein the application program relates to the latest messaging task executed on the first electronic device; transmitting information, corresponding to the latest messaging task taking place on the first electronic device, to the second electronic device; displaying a notification icon corresponding to the application program on a display module of the second electronic device; detecting a confirmation input corresponding to the notification icon by an input module of the second electronic device; and launching the application program on the second electronic device according to the confirmation input by a user. determining a latest messaging task executed on the first electronic device; analysing content of at least one message in the latest messaging task on the first electronic device; determining whether the content of the at least one message matches a predetermined tag corresponding to an application program, wherein the application program relates to the latest messaging task executed on the first electronic device; transmitting information, corresponding to the latest messaging task taking place on the first electronic device, to the second electronic device; displaying a notification icon corresponding to the application program on a display module of the second electronic device; detecting a confirmation input corresponding to the notification icon by an input module of the second electronic device; and launching the application program on the second electronic device according to the confirmation input by a user.
A process for the production of 1,2,3,4-tetrachloro-hexafluoro-butane comprising one of the following reactions: [a] fluorination of 1,2,3,4-tetrachlorobutane, or [b] fluorination of 1,2,3,4-tetrachloro-1,4-difluoro-1,3-butadiene, or [c] fluorodimerization of 1,2-dichlorodifluoroethylene said process being performed in a microreactor. [a] fluorination of 1,2,3,4-tetrachlorobutane, or [b] fluorination of 1,2,3,4-tetrachloro-1,4-difluoro-1,3-butadiene, or [c] fluorodimerization of 1,2-dichlorodifluoroethylene
An annular combustion chamber of a turbomachine having an end wall extending transversely to a longitudinal axis (L-L) along which the chamber extends, and side walls extending longitudinally from the end wall, situated at the upstream end of the chamber, to an orifice for discharging the stream of combustion gases, situated at the downstream end of the chamber, the side walls comprising at least one row of openings for the intake of air for diluting a stream of combustion gases, wherein at least one dilution opening (10, 20, 30) has an upstream edge (11, 21, 31) which projects toward the inside of the chamber and a downstream edge (12, 22, 32) which projects toward the outside of the chamber and is asymmetric to the upstream edge with respect to a plane (T-T) extending transversely to the wall, the aperture of the opening (10, 20, 30) having an axis (H-H) oriented in an oblique direction at an angle (α) with respect to the wall, this direction being oriented toward the inside and toward the downstream end of the chamber, characterized in that the side wall additionally comprises a plurality of perforations (19, 29, 39, 36, 35) for the passage of cooling air formed in a region around the edge (12, 31, 32) of the dilution opening (10, 20, 30).
A coating composition, comprising: 5 wt% to 70 wt% of a latex or a water-dispersible film forming polymer, based on the total weight of the coating composition; a surfactant present in the coating composition at 0.1% to 1% on the continuous phase of the coating composition; a polymeric associative thickener present in the coating composition at 0.1% to 2% on the continuous phase of the coating composition; 0.1 wt% to 5 wt% a styrene acrylic resin, based on the total weight of the coating composition; and an aqueous diluent. 5 wt% to 70 wt% of a latex or a water-dispersible film forming polymer, based on the total weight of the coating composition; a surfactant present in the coating composition at 0.1% to 1% on the continuous phase of the coating composition; a polymeric associative thickener present in the coating composition at 0.1% to 2% on the continuous phase of the coating composition; 0.1 wt% to 5 wt% a styrene acrylic resin, based on the total weight of the coating composition; and an aqueous diluent.
A polylactic acid film or sheet comprising polylactic acid, wherein a tear strength (according to JIS K7128-3: Plastics-Film and Sheeting-Determination of Tear Resistance, Part 3: Right angled tear method) is not less than 100 N/mm when the film or sheet is torn at least in a flow direction (machine direction: MD), the film or sheet stored under an atmosphere at 100°C for 1 minute has a rate of dimensional change due to heating of not more than ±3% in the flow direction and a transverse direction, the rate of dimensional change due to heating being determined by Expression: rate of dimensional change due to heating % = L 2 − L 1 / L 1 × 100 where L1 represents a gauge length before a test, and L2 represents a gauge length after the test, and the film or sheet stored under an atmosphere at 100°C for 1 minute while a load of 300 g/mm 2 is applied in the flow direction has a rate of dimensional change due to loaded heating of not more than ±3% in the flow direction, the rate of dimensional change due to loaded heating being determined by Expression: rate of dimensional change due to loaded heating % = L 4 − L 3 / L 3 × 100 where L3 represents a gauge length before a test, and L4 represents a gauge length after the test.