mhurhangee/ep-ind-claims huggingface dataset:
An imaging device comprising: a pixel array including an effective region used for obtaining an image and a surrounding region around the effective region, wherein a plurality of kinds of first optical filters configured to transmit a light with a respective different wavelength are provided in respective pixels in the effective region, a second optical filter having a transmission band with a shorter bandwidth than a bandwidth of a transmission band of the first optical filters (R, G, B) is provided in a first pixel in the surrounding region, and a third optical filter with a difference in transmission band from the second optical filter of a predetermined wavelength or more is provided in a second pixel adjacent to the first pixel wherein a difference between a peak wavelength of the second optical filter and a peak wavelength of the third optical filter is the predetermined wavelength or more, and wherein the transmission band of the second optical filter and the transmission band of the third optical filter overlap and the predetermined wavelength is 20nm or more. a pixel array including an effective region used for obtaining an image and a surrounding region around the effective region, wherein a plurality of kinds of first optical filters configured to transmit a light with a respective different wavelength are provided in respective pixels in the effective region, a second optical filter having a transmission band with a shorter bandwidth than a bandwidth of a transmission band of the first optical filters (R, G, B) is provided in a first pixel in the surrounding region, and a third optical filter with a difference in transmission band from the second optical filter of a predetermined wavelength or more is provided in a second pixel adjacent to the first pixel wherein a difference between a peak wavelength of the second optical filter and a peak wavelength of the third optical filter is the predetermined wavelength or more, and wherein the transmission band of the second optical filter and the transmission band of the third optical filter overlap and the predetermined wavelength is 20nm or more.
A method for producing stearidonic acid in a plant seed, said method comprising growing a plant having integrated into its genome a first DNA construct comprising, in the 5' to 3' direction of transcription, a promoter functional in a plant seed cell, a heterologous DNA sequence encoding a delta-six desaturase, and a transcription termination region functional in a plant cell, and a second construct comprising in the 5' to 3' direction of transcription, a promoter functional in a plant seed cell, and a heterologous DNA sequence encoding a delta 15-desaturase and growing said plant under conditions whereby said delta-six desaturase and said delta 15-desaturase are expressed.
A compound of Formula I: wherein Y is selected from the group consisting of halide, N3, -CN, RO-, NH 2 O-, NHRO-, NR 2 O-, RCO 2 -, ROCO 2 -, RNCO 2 -, RS-, RC O-, RCS 2 -, RSC S-, RSCS 2 - RSCO 2 -, ROC O-, ROCS 2 -, RSO 2 -, RSO 3 -, ROSO 2 -, ROSO 3 -, RPO 3 -, ROPO 3 -, imidazolyl, N -triazolyl, N -benzotriazolyl, benzotriazolyloxy, imidazolyloxy, N -imidazolinone, N -imidazolone, N -imidazolinethione, N -succinimidyl, N- phthalimidyl, N -succinimidyloxy, N -phthalimidyloxy, N -(5-norbornen-2,3-dicarboxyimidyloxy), 2-thioxothiazolidine-3-yl, -ON=C R, 2-pyridyloxy, phenoxy, p- chlorophenoxy, p -nitrophenoxy, trichlorophenoxy, and pentachlorophenoxy; R is an alkyl group or an aryl group; X is selected from the group consisting of O, S and NR 3; n is 1, 2 or 3; POLYMER is a water soluble, non-peptidic polymer; R 1 and R 2 are independently selected from the group consisting of hydrogen, (C 1 -C 6)-alkyl, (C 1 -C 6)-alkylenearyl, and aryl, with the proviso that at least one of R 1 and R 2 is different from hydrogen; and R 3 is selected from the group consisting of hydrogen, (C 1 -C 6)-alkyl, (C 1 -C 6)-alkylenearyl, and aryl. wherein Y is selected from the group consisting of halide, N3, -CN, RO-, NH 2 O-, NHRO-, NR 2 O-, RCO 2 -, ROCO 2 -, RNCO 2 -, RS-, RC O-, RCS 2 -, RSC S-, RSCS 2 - RSCO 2 -, ROC O-, ROCS 2 -, RSO 2 -, RSO 3 -, ROSO 2 -, ROSO 3 -, RPO 3 -, ROPO 3 -, imidazolyl, N -triazolyl, N -benzotriazolyl, benzotriazolyloxy, imidazolyloxy, N -imidazolinone, N -imidazolone, N -imidazolinethione, N -succinimidyl, N- phthalimidyl, N -succinimidyloxy, N -phthalimidyloxy, N -(5-norbornen-2,3-dicarboxyimidyloxy), 2-thioxothiazolidine-3-yl, -ON=C R, 2-pyridyloxy, phenoxy, p- chlorophenoxy, p -nitrophenoxy, trichlorophenoxy, and pentachlorophenoxy; R is an alkyl group or an aryl group; X is selected from the group consisting of O, S and NR 3; n is 1, 2 or 3; POLYMER is a water soluble, non-peptidic polymer; R 1 and R 2 are independently selected from the group consisting of hydrogen, (C 1 -C 6)-alkyl, (C 1 -C 6)-alkylenearyl, and aryl, with the proviso that at least one of R 1 and R 2 is different from hydrogen; and R 3 is selected from the group consisting of hydrogen, (C 1 -C 6)-alkyl, (C 1 -C 6)-alkylenearyl, and aryl.
A method for synchronizing pistons (84A, B) within linear pumps (24A, B) of a variable dispense ratio system, the method comprising: operating first and second pistons (84A, B) within first and second cylinders (86A, B) so that the first piston moves at a slower speed than the second piston to produce a variable dispense ratio; controlling the first and second pistons (84A, B) to reverse direction whenever one piston reaches an end of its respective cylinder to produce pumping; and reversing direction of one of the first and second pistons (84A, B) before either piston reaches an end of its respective cylinder to adjust the synchronicity of the pistons (84A, B). operating first and second pistons (84A, B) within first and second cylinders (86A, B) so that the first piston moves at a slower speed than the second piston to produce a variable dispense ratio; controlling the first and second pistons (84A, B) to reverse direction whenever one piston reaches an end of its respective cylinder to produce pumping; and reversing direction of one of the first and second pistons (84A, B) before either piston reaches an end of its respective cylinder to adjust the synchronicity of the pistons (84A, B).
A method comprising steps of: in a node in a Segment Routing network with the node including a plurality of ports and a switching fabric between the plurality of ports, and for an Ethernet Virtual Private Network, EVPN-Virtual Private Local Area Network Service, VPLS, transmitting, by a port, a packet with a plurality of Segment Identifiers, SID, including a destination SID that identifies a destination node for the packet, a service SID that identifies an EVPN Instance, EVI, and a source SID that identifies one of the node and an Ethernet Segment, ES, that includes the node, wherein the method further comprises the steps of: receiving, by the port, a second packet with a second plurality of SIDs; and learning a Media Access Control, MAC, address based on a second service SID and a second source SID, of the second packet, wherein the source SID is an anycast SID when the node is in a multi-homed configuration in the ES along with one or more additional nodes of the Segment Routing network, wherein the source SID is located after the service SID for the destination node to learn a source Media Access Control, MAC, address associated with the node. in a node in a Segment Routing network with the node including a plurality of ports and a switching fabric between the plurality of ports, and for an Ethernet Virtual Private Network, EVPN-Virtual Private Local Area Network Service, VPLS, transmitting, by a port, a packet with a plurality of Segment Identifiers, SID, including a destination SID that identifies a destination node for the packet, a service SID that identifies an EVPN Instance, EVI, and a source SID that identifies one of the node and an Ethernet Segment, ES, that includes the node, wherein the method further comprises the steps of: receiving, by the port, a second packet with a second plurality of SIDs; and learning a Media Access Control, MAC, address based on a second service SID and a second source SID, of the second packet, wherein the source SID is an anycast SID when the node is in a multi-homed configuration in the ES along with one or more additional nodes of the Segment Routing network, wherein the source SID is located after the service SID for the destination node to learn a source Media Access Control, MAC, address associated with the node. receiving, by the port, a second packet with a second plurality of SIDs; and learning a Media Access Control, MAC, address based on a second service SID and a second source SID, of the second packet, wherein the source SID is an anycast SID when the node is in a multi-homed configuration in the ES along with one or more additional nodes of the Segment Routing network, wherein the source SID is located after the service SID for the destination node to learn a source Media Access Control, MAC, address associated with the node.
A print head memory device, comprising: a number of erasable programmable read only memory (EPROM) banks (114-1,..., 114-N), each comprising an EPROM memory array; and a number of serial-in parallel-out shift registers (112-1,..., 112-N), each connected to each EPROM bank of the number of EPROM banks (114-1,..., 114-N), wherein the registers are capable of generating a three-dimensional EPROM address based on input signals, wherein generating the three-dimensional EPROM address comprises generating a number of outputs, the outputs comprising: a row select data signal specifying a row portion of the three-dimensional EPROM address, a column select data signal specifying a column portion of the three-dimensional EPROM address, and a bank select data signal specifying an EPROM bank of the number of EPROM banks (114-1,..., 114-N) associated with the row select data signal and the column select data signal, wherein the bank select data signal specifies more than one of the number of EPROM banks (114-1,..., 114-N) associated with the row select data and the column select data, to generate a parallel three-dimensional EPROM address for simultaneously addressing a row and column in the specified more than one of the number of EPROM banks. a number of erasable programmable read only memory (EPROM) banks (114-1,..., 114-N), each comprising an EPROM memory array; and a number of serial-in parallel-out shift registers (112-1,..., 112-N), each connected to each EPROM bank of the number of EPROM banks (114-1,..., 114-N), wherein the registers are capable of generating a three-dimensional EPROM address based on input signals, wherein generating the three-dimensional EPROM address comprises generating a number of outputs, the outputs comprising: a row select data signal specifying a row portion of the three-dimensional EPROM address, a column select data signal specifying a column portion of the three-dimensional EPROM address, and a bank select data signal specifying an EPROM bank of the number of EPROM banks (114-1,..., 114-N) associated with the row select data signal and the column select data signal, wherein a row select data signal specifying a row portion of the three-dimensional EPROM address, a column select data signal specifying a column portion of the three-dimensional EPROM address, and a bank select data signal specifying an EPROM bank of the number of EPROM banks (114-1,..., 114-N) associated with the row select data signal and the column select data signal, wherein the bank select data signal specifies more than one of the number of EPROM banks (114-1,..., 114-N) associated with the row select data and the column select data, to generate a parallel three-dimensional EPROM address for simultaneously addressing a row and column in the specified more than one of the number of EPROM banks.
A biopsy device, comprising: a biopsy needle (100, 101,200, 201, 618) having tissue-penetration and tissue-sampling modes; a pump (480, 502, 602, 712) connected to the biopsy needle to generate a vacuum in the biopsy needle; characterized in further comprising a first drive element connected to operate the pump; a second drive element to change the biopsy needle mode; the first drive element having a first displacement interval and a second displacement interval such that: during the first displacement interval, the first drive element operates the pump to generate a vacuum in the biopsy needle; and during the second displacement interval, the first drive element engages the second drive element to change the biopsy needle from the insertion mode to the tissue-sampling mode. a biopsy needle (100, 101,200, 201, 618) having tissue-penetration and tissue-sampling modes; a pump (480, 502, 602, 712) connected to the biopsy needle to generate a vacuum in the biopsy needle; characterized in further comprising a first drive element connected to operate the pump; a second drive element to change the biopsy needle mode; the first drive element having a first displacement interval and a second displacement interval such that: during the first displacement interval, the first drive element operates the pump to generate a vacuum in the biopsy needle; and during the second displacement interval, the first drive element engages the second drive element to change the biopsy needle from the insertion mode to the tissue-sampling mode.
A vehicle seat comprising a seat occupancy sensor, said seat occupancy sensor comprising: a first sensor group having first detection units (26F, 26C, 26R) as a plurality of detection units that are arrayed in a front-rear direction of the vehicle seat, disposed closer to an end of the seat in the seat width direction relative to a centerline of the seat surface extending in the front-rear direction of the seat and that become conductive as a load is applied thereto; a second sensor group having second detection units (28F, 28C, 28R) as a plurality of detection units that are arrayed in the front-rear direction of the seat, farther on a front side of the seat and closer to the end of the seat in a width direction of the seat than the first sensor group, and that become conductive as a load is applied thereto; and an electronic control unit configured to determine that someone is sitting on the seat when both of at least one of the first detection units (26F, 26C, 26R) and at least one of the second detection units (28F, 28C, 28R) become conductive. a first sensor group having first detection units (26F, 26C, 26R) as a plurality of detection units that are arrayed in a front-rear direction of the vehicle seat, disposed closer to an end of the seat in the seat width direction relative to a centerline of the seat surface extending in the front-rear direction of the seat and that become conductive as a load is applied thereto; a second sensor group having second detection units (28F, 28C, 28R) as a plurality of detection units that are arrayed in the front-rear direction of the seat, farther on a front side of the seat and closer to the end of the seat in a width direction of the seat than the first sensor group, and that become conductive as a load is applied thereto; and an electronic control unit configured to determine that someone is sitting on the seat when both of at least one of the first detection units (26F, 26C, 26R) and at least one of the second detection units (28F, 28C, 28R) become conductive.
Edge piece of a roller-shutter box having a belt drive and having an inner inspection cover, said edge piece a. being insertable between the inspection cover and a head piece of the roller-shutter box, and b. having a first side face which faces towards the inspection-cover end face in the installed state, and c. having a second side face which faces towards the head piece in the installed state, characterized in that said edge piece has at least one primary formed slot which is able to be passed through in the thickness direction, wherein the slot opens out into the first side face. a. being insertable between the inspection cover and a head piece of the roller-shutter box, and b. having a first side face which faces towards the inspection-cover end face in the installed state, and c. having a second side face which faces towards the head piece in the installed state,
Composition for the protection against corrosion of an article, said composition comprising: (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20 °C or less as determined by differential scanning calorimetry and wherein the amorphous polymer has an average molecular weight in the range of 1,000 to 3,050,000 g mol -1 as determined with gel permeation chromatography, (ii) one or more water-absorbing fillers having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard EN-ISO 10769:2011, wherein the one or more water-absorbing fillers comprise a non-polymeric filler that binds water by chemical reaction, and (iii) an antioxidant, wherein the composition comprises 30 to 70 wt.% of the amorphous polymer composition based on the total weight of the composition; and wherein the composition comprises (a) at least 30 wt.% of the non-polymeric water-absorbing filler, and optionally (b) at least 0.1 wt.% of a polymeric water-absorbing filler, all based on the total weight of the composition. (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20 °C or less as determined by differential scanning calorimetry and wherein the amorphous polymer has an average molecular weight in the range of 1,000 to 3,050,000 g mol -1 as determined with gel permeation chromatography, (ii) one or more water-absorbing fillers having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard EN-ISO 10769:2011, wherein the one or more water-absorbing fillers comprise a non-polymeric filler that binds water by chemical reaction, and (iii) an antioxidant, (a) at least 30 wt.% of the non-polymeric water-absorbing filler, and optionally (b) at least 0.1 wt.% of a polymeric water-absorbing filler,
A method of treating water containing per- and polyfluoroalkyl substances (PFASs), comprising: providing an activated carbon bed comprising activated carbon loaded with a positively-charged surfactant; and introducing the water to the activated carbon bed to promote adsorption of the PFASs, wherein the positively-charged surfactant is a quaternary ammonium-based surfactant which is cetyltrimethylammonium chloride (CTAC); and wherein the activated carbon is a coal-based granular activated carbon. providing an activated carbon bed comprising activated carbon loaded with a positively-charged surfactant; and introducing the water to the activated carbon bed to promote adsorption of the PFASs, wherein the positively-charged surfactant is a quaternary ammonium-based surfactant which is cetyltrimethylammonium chloride (CTAC); and wherein the activated carbon is a coal-based granular activated carbon.
Vehicle box consisting of a base that includes a central tunnel, a lateral longeron that both extend in a longitudinal direction to the body, and a floor that has an inner face facing the body, the floor that extends between the central tunnel and the longeron, the base 1) also comprising a first support of seat extending lengthwise along the tunnel and the inner face of the floor, fixed to the tunnel and the floor, a second support of seat extending lengthwise along the longeron and the inner face of the floor, fixed to the longeron and to the floor in respect of the first bracket, the said first and second supports (51, 52) each having a higher face distant from the inner face of the floor, so that the first and second supports (51, 52) are protruding from the inner face of the floor, the upper faces having attachment interfaces (61, 62) for fixing a seat, the body being characterized by a reinforcement cross extending between the two supports (51, 52), at a distance from the floor, fixed by each end to each of the supports (51, 52).
A 4-methyl-1-pentene polymer wherein: a content of a constitutional unit derived from 4-methyl-1-pentene is 90 to 100% by mol; a content of a constitutional unit derived from at least one olefin selected from ethylene and an α-olefin, other than 4-methyl-1-pentene, having 3 to 20 carbon atoms is 0 to 10% by mol; and the 4-methyl-1-pentene polymer satisfies all the following requirements (a) to (f): (a) a meso diad fraction (m) measured by 13 C-NMR falls within the range of 70.0% or more to less than 98.0%; (b) a ratio of weight-average molecular weight Mw to number-average molecular weight Mn (Mw/Mn) measured by gel permeation chromatography falls within the range of 3.6 to 30; (c) a melt flow rate measured under conditions of 260°C and a 5 kg load in conformity to ASTM D1238 falls within the range of 0.1 to 500 g/10 min; (d) a cumulative weight fraction of amounts of eluates into o-dichlorobenzene at 80°C or lower measured in a cross fractionation chromatograph apparatus using an infrared spectrophotometer as a detector part is 5% by mass or less; (e) a proportion of a polymer having a molecular weight of 1 × 10 6 or larger measured by gel permeation chromatography is 15% by mass or more; and (f) a heat of fusion and a melting point of the 4-methyl-1-pentene polymer measured by differential scanning calorimetry satisfy the following requirements (i) and (ii): (i) the following expression holds: Δ Hm < 0.5 × Tm − 76 wherein the heat of fusion is defined as ΔHm J/g, and the melting point is defined as Tm °C; and (ii) the melting point falls within the range of 180 to 260°C. (a) a meso diad fraction (m) measured by 13 C-NMR falls within the range of 70.0% or more to less than 98.0%; (b) a ratio of weight-average molecular weight Mw to number-average molecular weight Mn (Mw/Mn) measured by gel permeation chromatography falls within the range of 3.6 to 30; (c) a melt flow rate measured under conditions of 260°C and a 5 kg load in conformity to ASTM D1238 falls within the range of 0.1 to 500 g/10 min; (d) a cumulative weight fraction of amounts of eluates into o-dichlorobenzene at 80°C or lower measured in a cross fractionation chromatograph apparatus using an infrared spectrophotometer as a detector part is 5% by mass or less; (e) a proportion of a polymer having a molecular weight of 1 × 10 6 or larger measured by gel permeation chromatography is 15% by mass or more; and (f) a heat of fusion and a melting point of the 4-methyl-1-pentene polymer measured by differential scanning calorimetry satisfy the following requirements (i) and (ii): (i) the following expression holds: Δ Hm < 0.5 × Tm − 76 wherein the heat of fusion is defined as ΔHm J/g, and the melting point is defined as Tm °C; and (ii) the melting point falls within the range of 180 to 260°C. (i) the following expression holds: Δ Hm < 0.5 × Tm − 76 wherein the heat of fusion is defined as ΔHm J/g, and the melting point is defined as Tm °C; and (ii) the melting point falls within the range of 180 to 260°C.
An inductive path measurement device having a sensor coil, a plunger that is movable relative to the sensor coil, and a measurement circuit for measuring the inductance of the sensor coil and the compensation coil as dependent upon the path of the plunger, characterized in that a compensation coil is arranged coaxially with the sensor coil and connected in series therewith for compensating noise voltages that are induced in the sensor coil by external magnetic fields, the compensation coil is arranged at a distance from the sensor coil and is further apart from the plunger than the sensor coil and encircles a larger area than the sensor coil and has a smaller number of turns than the latter, and in that the measurement circuit comprises an electronic processing and control unit for calculating the path, which the plunger has travelled, as a function of the measured inductance.