mhurhangee/ep-ind-claims huggingface dataset:
A method of reducing undesirable imaging artefacts in an IR detector system, the IR detector system comprising pixels, each pixel including a integration capacitor (Cint) and a sample and hold circuit comprising a sample and hold capacitor (Ch); the method comprising: a) binning together pixels in pixel groups by asserting respective binning control of said pixels,; characterised by the steps of b) configuring said pixel groups so that when the first pixel in a group is operated a signal is integrated into integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and into the sample and hold capacitor of the first pixel, and will not integrate into sample and hold capacitor(s) of other pixel(s) in the group; c) turning off (closing) the sample and hold circuit of the first pixel in the group to retain the signal on the sample and hold capacitor of the first pixel; d) resetting the integration capacitors; e) configuring the pixel groups so that when the next pixel in the group is operated a signal is integrated into the integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and on the sample and hold capacitor of said next pixel, and will not integrate into sample and hold capacitor(s) of the other pixel(s) in the groups; f) turning off (closing) the sample and hold circuit of said next pixel in the group to retain the signal on the sample and hold capacitor of said next pixel; g) resetting the integration capacitors; and h) repeating steps (e),(f),(g) for the other pixels of the group.. a) binning together pixels in pixel groups by asserting respective binning control of said pixels,; characterised by the steps of b) configuring said pixel groups so that when the first pixel in a group is operated a signal is integrated into integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and into the sample and hold capacitor of the first pixel, and will not integrate into sample and hold capacitor(s) of other pixel(s) in the group; c) turning off (closing) the sample and hold circuit of the first pixel in the group to retain the signal on the sample and hold capacitor of the first pixel; d) resetting the integration capacitors; e) configuring the pixel groups so that when the next pixel in the group is operated a signal is integrated into the integration capacitors (Cint 1, Cint 2) of each of the pixels of the group and on the sample and hold capacitor of said next pixel, and will not integrate into sample and hold capacitor(s) of the other pixel(s) in the groups; f) turning off (closing) the sample and hold circuit of said next pixel in the group to retain the signal on the sample and hold capacitor of said next pixel; g) resetting the integration capacitors; and h) repeating steps (e),(f),(g) for the other pixels of the group..
Transmitting apparatus for transmitting signals in a multi carrier system on the basis of a frame structure, each frame comprising at least two signalling patterns adjacent to each other in the frequency direction and at least two data patterns following the at least two signalling patterns in the time direction in the time slot immediately succeeding the time slot in which the at least two signalling patterns are located, wherein each of the data patterns succeeding the signalling patterns is respectively followed by further data patterns in succeeding time slots in the time direction, wherein all data patterns following each other in the time direction have the same frequency direction structure, each of the at least two signalling patterns and the data patterns comprising a plurality of frequency carriers, said transmitting apparatus comprising signalling mapping means adapted to map signalling data and pilot signals on frequency carriers of each of said at least two signalling patterns in a frame, each signalling pattern comprising location information indicating the location of the data patterns, wherein all signalling patterns in a frame comprise identical signalling data, said signalling data comprising the physical layer information necessary for the receipt of the succeeding data patterns, whereby the signalling data are repeated in each of said at least two signalling patterns so that the identical signalling data can be retrieved from each of said at least two signalling patterns, data mapping means (58, 58', 58") adapted to map data on frequency carriers of said at least two data patterns in a frame, transforming means adapted to transform said signalling patterns and said data patterns from the frequency domain into the time domain in order to generate a time domain transmission signal, and transmitting means adapted to transmit said time domain transmission signal.
Leaf stripping machine for row crops, comprising: - a supporting structure (11, 111, 211) in which, when the machine is in a working configuration, a top flank (13, 113, 213), a bottom flank (15, 115, 215), a rear flank (17, 117, 217) and a front flank (19, 119, 219) are defined; - at least one skid (21, 22, 121, 122, 221, 222) attached in a removable way to said supporting structure (11, 111, 211) by means of suitable securing means (23, 123, 223), said at least one skid (21, 22, 121, 122, 221, 222) extending in a longitudinal direction substantially parallel to a direction ("d") of advancement of said machine (10, 110, 210); - a plurality of leaf stripping modules (25a, 25b, 25c, 125a - 125d, 225a - 225d), arranged to strip leaves from a row crop, said leaf stripping modules being attached to said supporting structure and associated to at least one suction device (40, 140, 240); - each of said leaf stripping modules (25a, 25b, 25c, 125a - 125d, 225a - 225d) being provided with a pair of counter-rotating rolls (27, 127, 227), at least one of the rolls (27a, 127a, 227a) of said pair of rolls being motorized, and with an opening for the passage of leaves, in a distal plane substantially parallel to a working plane of the machine, characterized in that at least one of said leaf stripping modules (25a, 25b, 25c, 125a - 125d, 225a - 225d) comprises a separating knife (31, 131, 231) extending at the front of said opening of the corresponding leaf stripping module. - a supporting structure (11, 111, 211) in which, when the machine is in a working configuration, a top flank (13, 113, 213), a bottom flank (15, 115, 215), a rear flank (17, 117, 217) and a front flank (19, 119, 219) are defined; - at least one skid (21, 22, 121, 122, 221, 222) attached in a removable way to said supporting structure (11, 111, 211) by means of suitable securing means (23, 123, 223), said at least one skid (21, 22, 121, 122, 221, 222) extending in a longitudinal direction substantially parallel to a direction ("d") of advancement of said machine (10, 110, 210); - a plurality of leaf stripping modules (25a, 25b, 25c, 125a - 125d, 225a - 225d), arranged to strip leaves from a row crop, said leaf stripping modules being attached to said supporting structure and associated to at least one suction device (40, 140, 240); - each of said leaf stripping modules (25a, 25b, 25c, 125a - 125d, 225a - 225d) being provided with a pair of counter-rotating rolls (27, 127, 227), at least one of the rolls (27a, 127a, 227a) of said pair of rolls being motorized, and with an opening for the passage of leaves, in a distal plane substantially parallel to a working plane of the machine, characterized in that at least one of said leaf stripping modules (25a, 25b, 25c, 125a - 125d, 225a - 225d) comprises a separating knife (31, 131, 231) extending at the front of said opening of the corresponding leaf stripping module.
An esterified cellulose ether comprising aliphatic monovalent acyl groups and groups of the formula - C - R - COOH, R being a divalent hydrocarbon group, wherein i) the degree of neutralization of the groups - C - R - COOH is not more than 0.4, ii) the total degree of ester substitution is from 0.10 to 0.70, and iii) the esterified cellulose ether has a solubility in water of at least 2.0 weight percent at 2 °C. i) the degree of neutralization of the groups - C - R - COOH is not more than 0.4, ii) the total degree of ester substitution is from 0.10 to 0.70, and iii) the esterified cellulose ether has a solubility in water of at least 2.0 weight percent at 2 °C.
An organic light emitting display device, comprising: a plurality of pixels, each of the plurality of pixels including two first sub pixels of a first color, two second sub pixels of a second color and two third sub pixels of a third color; wherein all sub pixels in a first pixel among the plurality of pixels are symmetric to all sub pixels in a second pixel adjacent to the first pixel in a second direction with respect to a boundary line (l 5) extending along a first direction between the first pixel and the adjacent second pixel, wherein the first direction and the second direction are perpendicular to each other, wherein the two first sub pixels are disposed on a first line (l 1) extended in the first direction, wherein the two second sub pixels are disposed on a different side with respect to the first line (l 1) than the two third sub pixels, wherein a distance between one of the two second sub pixels and one of the two third sub pixels is different from a distance between the other one of the two second sub pixels and the other one of the two third sub pixels, wherein, in each pixel, a first diagonal line (ld 3) connecting centers of the two second sub pixels, and/or a second diagonal line (ld 4) connecting centers of the two third sub pixels extend in a direction diagonal to the boundary line (l 5), wherein, in each pixel, a third diagonal line (ld 1) connecting centers of the two first sub pixels extends in a direction diagonal to the boundary line (l 5) and wherein the first, second and third colors are different colors. a plurality of pixels, each of the plurality of pixels including two first sub pixels of a first color, two second sub pixels of a second color and two third sub pixels of a third color; wherein all sub pixels in a first pixel among the plurality of pixels are symmetric to all sub pixels in a second pixel adjacent to the first pixel in a second direction with respect to a boundary line (l 5) extending along a first direction between the first pixel and the adjacent second pixel, wherein the first direction and the second direction are perpendicular to each other, wherein the two first sub pixels are disposed on a first line (l 1) extended in the first direction, wherein the two second sub pixels are disposed on a different side with respect to the first line (l 1) than the two third sub pixels, wherein a distance between one of the two second sub pixels and one of the two third sub pixels is different from a distance between the other one of the two second sub pixels and the other one of the two third sub pixels, wherein, in each pixel, a first diagonal line (ld 3) connecting centers of the two second sub pixels, and/or a second diagonal line (ld 4) connecting centers of the two third sub pixels extend in a direction diagonal to the boundary line (l 5), wherein, in each pixel, a third diagonal line (ld 1) connecting centers of the two first sub pixels extends in a direction diagonal to the boundary line (l 5) and wherein the first, second and third colors are different colors.
A method of detecting filarial larvae in blood, comprising: preparing a measurement sample from a blood sample collected from an animal; flowing the prepared measurement sample through a flow cell; irradiating light on the measurement sample flowing through the flow cell; detecting light given off from the irradiated measurement sample; and detecting filarial larvae contained in the measurement sample by distinguishing them from white blood cells based on characteristic parameter of the detected light, wherein the characteristic parameter comprises at least one characteristic parameter or at least two types of characteristic parameters, wherein the at least one characteristic parameter is a width of a signal of side scattered light or a width of a signal of forward scattered light, and the at least two types of characteristic parameters are selected from intensity of the side scattered light and intensity of fluorescent light, the intensity of the side scattered light and intensity of the forward scattered light, the width of the signal of the forward scattered light and the intensity of the forward scattered light, and the intensity of the fluorescent light and the intensity of the forward scattered light. preparing a measurement sample from a blood sample collected from an animal; flowing the prepared measurement sample through a flow cell; irradiating light on the measurement sample flowing through the flow cell; detecting light given off from the irradiated measurement sample; and detecting filarial larvae contained in the measurement sample by distinguishing them from white blood cells based on characteristic parameter of the detected light, wherein the characteristic parameter comprises at least one characteristic parameter or at least two types of characteristic parameters, wherein the at least one characteristic parameter is a width of a signal of side scattered light or a width of a signal of forward scattered light, and the at least two types of characteristic parameters are selected from intensity of the side scattered light and intensity of fluorescent light, the intensity of the side scattered light and intensity of the forward scattered light, the width of the signal of the forward scattered light and the intensity of the forward scattered light, and the intensity of the fluorescent light and the intensity of the forward scattered light.
Contact carrier for accommodating and fixing at least one crimp contact, wherein the contact carrier has a plug-in side and, situated oppositely, a connection side, and wherein the contact carrier furthermore is of at least two-part design and has an insulating body and a holding plate which is able to be fitted thereon on the connection side, wherein the insulating body has at least one latching element which, in the non-fitted state, can assume both a position in which the crimp contact is latched in place and a position in which the crimp contact is unlatched, wherein the holding plate has at least one blocking element which, in the fitted state, fixes the at least one latching element in its position in which the crimp contact is latched in place and thus prevents it from transferring from the latching position into the unlatching position, wherein the latching element is designed as at least one latching arm which points in the direction of the connection side and which has a latching formation for being latched in a latching groove of the crimp contact, characterized in that the blocking element, in the fitted state, is arranged in a force-fitting manner between the at least one latching arm and an inner side of a passage opening of the insulating body, and in that the blocking element is a sleeve segment.
A gas turbine engine comprising: a high speed spool and a low speed spool; and a low speed power takeoff driven by said low speed spool and a high speed power takeoff driven by said high speed spool, said low speed power takeoff driving a plurality of low speed driven accessories (102,104,106,108) about low speed spool drive axes (Y 1,Y 2,Y 3,Y 4) and said high speed power takeoff driving a plurality of high speed driven accessories (112,114,136) about high speed spool drive axes (X 1,X 2,X 3), characterised in that: said low speed spool drive axes (Y 1...Y 4) are generally tangential to a circumferential envelope defined about a center axis of said engine, said high speed spool drive axes (X 1...X 3) are generally tangential to a circumferential envelope defined about said center axis, said plurality of low speed driven accessories (102,104,106,108) are intermeshed with and configured for rotation by said low speed power takeoff about said low speed spool drive axes (Y 1...Y 4), and said plurality of high speed driven accessories (112,114,136) are intermeshed with and configured for rotation by said high speed power takeoff about said high speed spool drive axes (X 1...X 3). a high speed spool and a low speed spool; and a low speed power takeoff driven by said low speed spool and a high speed power takeoff driven by said high speed spool, said low speed power takeoff driving a plurality of low speed driven accessories (102,104,106,108) about low speed spool drive axes (Y 1,Y 2,Y 3,Y 4) and said high speed power takeoff driving a plurality of high speed driven accessories (112,114,136) about high speed spool drive axes (X 1,X 2,X 3), characterised in that: said low speed spool drive axes (Y 1...Y 4) are generally tangential to a circumferential envelope defined about a center axis of said engine, said high speed spool drive axes (X 1...X 3) are generally tangential to a circumferential envelope defined about said center axis, said plurality of low speed driven accessories (102,104,106,108) are intermeshed with and configured for rotation by said low speed power takeoff about said low speed spool drive axes (Y 1...Y 4), and said plurality of high speed driven accessories (112,114,136) are intermeshed with and configured for rotation by said high speed power takeoff about said high speed spool drive axes (X 1...X 3).
A food, of which an off-flavor is reduced, comprising: 0.1 to 60 mass % of an off-flavor reducing agent, the off-flavor reducing agent comprising aqueous phase particles which contain 1 to 60 mass% of a polyphenol material and are dispersed in an oily phase, wherein the polyphenol material is one or more selected from a hesperidin material, a coffee polyphenol material, a rutin material, and an anthocyanin material, and wherein the food is one or more selected from a high-cacao chocolate having a cacao content greater than or equal to 65 mass%, a vegetable, a beverage, a bean-derived material, a wheat-derived material, a potato-derived material, a rice-derived material, a corn-derived material, and vegetable oils and fats. 0.1 to 60 mass % of an off-flavor reducing agent, the off-flavor reducing agent comprising aqueous phase particles which contain 1 to 60 mass% of a polyphenol material and are dispersed in an oily phase, wherein the polyphenol material is one or more selected from a hesperidin material, a coffee polyphenol material, a rutin material, and an anthocyanin material, and wherein the food is one or more selected from a high-cacao chocolate having a cacao content greater than or equal to 65 mass%, a vegetable, a beverage, a bean-derived material, a wheat-derived material, a potato-derived material, a rice-derived material, a corn-derived material, and vegetable oils and fats.
A method of Adaptive Loop Filter "ALF" information coding for scalable video coding as understood in HEVC, wherein video data is configured into a Base Layer "BL" and an Enhancement Layer "EL" and wherein the EL has higher spatial resolution or better video quality than the BL, the method characterized by: determining ALF filter coefficients of the BL; and deriving ALF filter coefficients for the EL using the ALF filter coefficients of the BL, respectively, wherein the step of deriving ALF filter coefficients for the EL using the ALF filter coefficients of the BL, respectively, comprises: directly reusing the ALF filter coefficients of the BL as the related ALF filter coefficients for the EL, respectively, or using scaled ALF filter coefficients of the ALF filter coefficients of the BL as a predictor of the related ALF filter coefficients for the EL, respectively, wherein a first flag is used to indicate whether the ALF filter coefficients for the EL are predicted from the ALF filter coefficients of the BL, respectively, wherein the scaled ALF filter coefficients are used as the predictor of the ALF filter coefficients for the EL, respectively, if the first flag indicates that the ALF filter coefficients for the EL are predicted from the ALF filter coefficients of the BL, respectively. determining ALF filter coefficients of the BL; and deriving ALF filter coefficients for the EL using the ALF filter coefficients of the BL, respectively, wherein the step of deriving ALF filter coefficients for the EL using the ALF filter coefficients of the BL, respectively, comprises: directly reusing the ALF filter coefficients of the BL as the related ALF filter coefficients for the EL, respectively, or using scaled ALF filter coefficients of the ALF filter coefficients of the BL as a predictor of the related ALF filter coefficients for the EL, respectively, wherein a first flag is used to indicate whether the ALF filter coefficients for the EL are predicted from the ALF filter coefficients of the BL, respectively, wherein the scaled ALF filter coefficients are used as the predictor of the ALF filter coefficients for the EL, respectively, if the first flag indicates that the ALF filter coefficients for the EL are predicted from the ALF filter coefficients of the BL, respectively. directly reusing the ALF filter coefficients of the BL as the related ALF filter coefficients for the EL, respectively, or using scaled ALF filter coefficients of the ALF filter coefficients of the BL as a predictor of the related ALF filter coefficients for the EL, respectively, wherein a first flag is used to indicate whether the ALF filter coefficients for the EL are predicted from the ALF filter coefficients of the BL, respectively, wherein the scaled ALF filter coefficients are used as the predictor of the ALF filter coefficients for the EL, respectively, if the first flag indicates that the ALF filter coefficients for the EL are predicted from the ALF filter coefficients of the BL, respectively.
A brightness enhancing film having a microstructured surface comprising a plurality of prisms, wherein the microstructured surface comprises the reaction product of a polymerizable composition comprising at least 20 wt-% of inorganic nanoparticles, wherein the inorganic nanoparticles are surface modified and have a refractive index of at least 1.68, a non-aromatic multi-(meth)acrylate monomer comprising at least three contiguous alkylene oxide repeat units, and mono(meth)acrylate diluent selected from biphenyl monomer, benzyl monomer, or a combination thereof.