mhurhangee/ep-ind-claims huggingface dataset:
A method of selectively controlling weeds at a locus comprising maize or cereals and weeds, wherein the method comprises application to the locus of a weed controlling amount of an aqueous spray composition comprising a compound of formula I wherein R 1 is selected from the group consisting of C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 haloalkenyl, C 2 -C 6 alkynyl, C 2 -C 6 haloalkynyl, C 3 -C 6 cycloalkyl, C 1 -C 6 haloalkyl, C 1 -C 4 alkoxy-C 1 -C 4 alkyl and C 1 -C 4 alkoxy-C 1 -C 4 alkoxy-C 1 -C 4 alkyl; and R 2 is C 1 -C 6 haloalkyl; or an agriculturally acceptable salt therefore; wherein in the pH of the spray composition is from 5 to 9. wherein R 1 is selected from the group consisting of C 1 -C 6 alkyl, C 2 -C 6 alkenyl, C 2 -C 6 haloalkenyl, C 2 -C 6 alkynyl, C 2 -C 6 haloalkynyl, C 3 -C 6 cycloalkyl, C 1 -C 6 haloalkyl, C 1 -C 4 alkoxy-C 1 -C 4 alkyl and C 1 -C 4 alkoxy-C 1 -C 4 alkoxy-C 1 -C 4 alkyl; and R 2 is C 1 -C 6 haloalkyl; or an agriculturally acceptable salt therefore; wherein in the pH of the spray composition is from 5 to 9.
A tangible machine-readable medium including instructions which when executed by a computer (102, 310) cause the computer (102, 310) to perform operations for classifying a network, the operations comprising: detecting, by a client (106, 202) executing on the computer (102, 310), a network indicator associated with a network, the network provided by a network provider (104, 212); after the detecting of the network indicator, obtaining via interaction with the network provider (104, 212) an actual attribute of the network; and determining that stored information about the network includes an expected attribute that matches the actual attribute wherein the expected attribute is derived from the network indicator associated with the network; and after determining the actual attribute matches the expected attribute, classifying the network as being in a class of a plurality of classes, the classifying based on the determination that the actual attribute matches the expected attribute and facilitating a connection between the computer (102, 310) and the network; and in response to determining the actual attribute does not match the expected attribute, reclassifying the network into another one of a plurality of network classes and precluding a connection between the computer (102, 310) and the network. detecting, by a client (106, 202) executing on the computer (102, 310), a network indicator associated with a network, the network provided by a network provider (104, 212); after the detecting of the network indicator, obtaining via interaction with the network provider (104, 212) an actual attribute of the network; and determining that stored information about the network includes an expected attribute that matches the actual attribute wherein the expected attribute is derived from the network indicator associated with the network; and after determining the actual attribute matches the expected attribute, classifying the network as being in a class of a plurality of classes, the classifying based on the determination that the actual attribute matches the expected attribute and
A printed product having an optical security feature, comprising: a printing substrate; a first line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method; and a second line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method and have an orientation which differs from that of the first line structure; the printing ink for printing the first line structure containing color pigments having a tilt effect, the ratio of a line spacing, which refers to the spacing of two immediately adjacent line centers, to a line width of the raised lines of the first line structure being at least 1.5, the first and the second line structure having a height of at least 5 micrometers, the printing ink for printing the first line structure containing at least 30 percent by weight of color pigments having a tilt effect and the printed product further comprising an at least partial-area background print on the printing substrate, the first and the second line structure being printed onto the background print and the background print being carried out with a dark, preferably black, color. a printing substrate; a first line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method; and a second line structure consisting of a plurality of raised, mutually parallel, spaced-apart lines which are applied to the printing substrate in a screen printing method and have an orientation which differs from that of the first line structure; the printing ink for printing the first line structure containing color pigments having a tilt effect, the ratio of a line spacing, which refers to the spacing of two immediately adjacent line centers, to a line width of the raised lines of the first line structure being at least 1.5, the first and the second line structure having a height of at least 5 micrometers, the printing ink for printing the first line structure containing at least 30 percent by weight of color pigments having a tilt effect and the printed product further comprising an at least partial-area background print on the printing substrate, the first and the second line structure being printed onto the background print and the background print being carried out with a dark, preferably black, color.
Swab kit comprising a swab applicator having an elongated swab head and a swab rod, a low-absorbent, flexible sampling cloth, with an absorbancy of 3.5 g/g or less, fastened to said swab head by fastening means that fixedly attach the sampling cloth to the swab head such that during insertion and removal of the sampling cloth into and from a human or animal bodily cavity, the sampling cloth remains fixed to the swab head the sampling cloth having a distal end (4.1) and a proximal end (4.2), said distal and proximal ends (4.1, 4.2) defining an insertion direction (x) of the swab applicator inside a human or animal bodily cavity wherein said proximal end (4.2) is the end that first enters the bodily cavity and said distal end (4.1) is the end that last enters the bodily cavity wherein the sampling cloth comprises at least one flap situated at the distal end (4.1) thereof having a fixedly attached end that is fastened by the fastening means to the swab head and one free end, opposite to the fixed end, wherein said flap has a length between the fixed end and the free end of at least 3 mm characterized in that the fastening means are a continuous welding line, spot welding row, sewing line, and/or glue line. a low-absorbent, flexible sampling cloth, with an absorbancy of 3.5 g/g or less, fastened to said swab head by fastening means that fixedly attach the sampling cloth to the swab head such that during insertion and removal of the sampling cloth into and from a human or animal bodily cavity, the sampling cloth remains fixed to the swab head the sampling cloth having a distal end (4.1) and a proximal end (4.2), said distal and proximal ends (4.1, 4.2) defining an insertion direction (x) of the swab applicator inside a human or animal bodily cavity wherein said proximal end (4.2) is the end that first enters the bodily cavity and said distal end (4.1) is the end that last enters the bodily cavity wherein the sampling cloth comprises at least one flap situated at the distal end (4.1) thereof having a fixedly attached end that is fastened by the fastening means to the swab head and one free end, opposite to the fixed end, wherein said flap has a length between the fixed end and the free end of at least 3 mm characterized in that the fastening means are a continuous welding line, spot welding row, sewing line, and/or glue line.
Valve for a beverage filling system, preferably for a filling element of a beverage filling system, comprising a valve body with at least one inlet channel and at least one outlet channel which is associated with the inlet channel, wherein an actuating element with a passage channel for selectively establishing a fluidic connection between the inlet channel and the outlet channel is arranged in the valve body such that it can rotate about a rotation axis, and the actuating element can alternatively be rotated into a neutral position, wherein the passage channel extends through the actuating element parallel to the rotation axis, characterized in that at least one first inlet channel with a first outlet channel which is associated with said first inlet channel, and at least one second inlet channel with a second outlet channel which is associated with the said second inlet channel are provided in the valve body, wherein either the first inlet channel and the first outlet channel or the second inlet channel and the second outlet channel can be brought into fluidic connection with one another by means of the passage channel of the actuating element.
An aerosol container comprising: a can body having an enclosed base and a sidewall; a mounting cup that is attached to the can body by a seam at an upper end of the can body, the mounting cup including an inner seam wall, a downwardly oriented dish portion and a ferrule having an upstanding wall and an inwardly extending panel, wherein said downwardly oriented dish portion: a) is outwardly concave, that is, concave when viewed from the outside of the container, from the inner seam wall to the upstanding wall, and b) extends downwardly from said seam to said upstanding wall; and a valve that is attached to the mounting cup within the ferrule; and wherein the valve includes a stem extending upwardly through the inwardly extending panel of the ferrule and wherein respective uppermost points on the stem and the ferrule are no higher than an uppermost point on the seam. a can body having an enclosed base and a sidewall; a mounting cup that is attached to the can body by a seam at an upper end of the can body, the mounting cup including an inner seam wall, a downwardly oriented dish portion and a ferrule having an upstanding wall and an inwardly extending panel, wherein said downwardly oriented dish portion: a) is outwardly concave, that is, concave when viewed from the outside of the container, from the inner seam wall to the upstanding wall, and b) extends downwardly from said seam to said upstanding wall; and a) is outwardly concave, that is, concave when viewed from the outside of the container, from the inner seam wall to the upstanding wall, and b) extends downwardly from said seam to said upstanding wall; and a valve that is attached to the mounting cup within the ferrule; and wherein the valve includes a stem extending upwardly through the inwardly extending panel of the ferrule and wherein respective uppermost points on the stem and the ferrule are no higher than an uppermost point on the seam.
A method of wireless communication, comprising: receiving a broadcasted request for channel state information at an apparatus; determining parameters of the channel state information based on information included in the request; determining the channel state information based at least in part on the determined parameters; and transmitting a frame comprising at least a portion of the determined channel state information, wherein at least one of the parameters comprises a number of columns of a matrix for the channel state information that is requested, and wherein the request comprises a first field indicating the number. receiving a broadcasted request for channel state information at an apparatus; determining parameters of the channel state information based on information included in the request; determining the channel state information based at least in part on the determined parameters; and transmitting a frame comprising at least a portion of the determined channel state information, wherein at least one of the parameters comprises a number of columns of a matrix for the channel state information that is requested, and wherein the request comprises a first field indicating the number.
A connection system (10, 100, 210) for forming a sealed fluid connection, said system comprising: a first connector (18, 118, 218) comprising a floor (50, 240), an annular wall extending from the floor, a standoff (34, 134, 234, 234b) projecting from the floor within the annular wall and disposed for blocking nonconforming connectors from entering into fluid connection with the annular wall of the first connector, and at least one opening (72, 236) in the floor disposed radially outward from the standoff; and a second connector (14, 114, 214) comprising a floor, an annular wall adapted to form a sealed fit connection with the annular wall of the first connector to provide a fluid tight passage between the first and second connectors, a receptacle (38, 138, 238) projecting from the floor of the second connector to receive the standoff of the first connector and permit the annular wall of the first connector to come into sealing engagement with the annular wall of the second connector to form said fluid tight passage, and at least one opening in the floor of the second connector disposed radially outward from the receptacle, characterized in that the position of the at least one openings causes fluid to flow around the centrally located at least one standoff and receptacle, wherein the standoff has a diameter greater than a luer opening diameter thereby to prevent a luer connector from sealingly connecting with the first connector, and wherein the receptacle has a diameter larger than a luer opening diameter thereby to prevent a luer connector from sealingly connecting with the second connector. a first connector (18, 118, 218) comprising a floor (50, 240), an annular wall extending from the floor, a standoff (34, 134, 234, 234b) projecting from the floor within the annular wall and disposed for blocking nonconforming connectors from entering into fluid connection with the annular wall of the first connector, and at least one opening (72, 236) in the floor disposed radially outward from the standoff; and a second connector (14, 114, 214) comprising a floor, an annular wall adapted to form a sealed fit connection with the annular wall of the first connector to provide a fluid tight passage between the first and second connectors, a receptacle (38, 138, 238) projecting from the floor of the second connector to receive the standoff of the first connector and permit the annular wall of the first connector to come into sealing engagement with the annular wall of the second connector to form said fluid tight passage, and at least one opening in the floor of the second connector disposed radially outward from the receptacle, characterized in that the position of the at least one openings causes fluid to flow around the centrally located at least one standoff and receptacle, wherein the standoff has a diameter greater than a luer opening diameter thereby to prevent a luer connector from sealingly connecting with the first connector, and wherein the receptacle has a diameter larger than a luer opening diameter thereby to prevent a luer connector from sealingly connecting with the second connector.
Particle sensor for detecting particles in a gas flow, comprising - at least one interdigital electrode system (1a, 1b) comprising at least two interdigital electrodes engaging in one another in a comb-like manner, and - a carrier element, wherein a measuring chamber with at least one gas inlet opening and at least one gas outlet opening is formed in the carrier element, at least one interdigital electrode system being arranged on a surface of the measuring chamber, characterized in that the carrier element has a substantially rotationally symmetrical outer wall. - at least one interdigital electrode system (1a, 1b) comprising at least two interdigital electrodes engaging in one another in a comb-like manner, and - a carrier element,
Component for a turbo device comprising a compressor and a turbine, having a component body which consists at least partially of a titanium-aluminium alloy, the titanium-aluminium alloy having a titanium portion of 40 at.% to 60 at.% and an aluminium portion of 5 at.% to 50 at.%, the component at least partially having on its component surface a protective layer produced by plasma-electrolytic oxidation, the component having a first material recess forming a bore for a bearing, characterized in that the component has at least one additional material recess forming a cavity inside the component body so as to reduce the accelerating masses of the component, a surface of the component which delimits the at least one additional material recess at least partly having a protective layer produced by means of said plasma-electrolytic oxidation.
Electrical appliances of the modular type: - arranged in a row on a mounting rail inside a box; - cooperating, via connecting terminals, with a device of the comb type designed for bridging the group of appliances, extending parallel to the rail and having a plurality of teeth distributing successively several phases and a neutral one, the phase type teeth being located in a row opposite a row of neutral teeth, each neutral tooth being interposed at regular intervals offset between two adjacent phase teeth; characterised in that they have an arrangement of holes reflecting the arrangement of teeth on the comb, each hole being designed to receive one tooth, some holes (5, 6, 7, 12) comprising means for connecting to terminals, others (8, 9, 10, 11; 47) ensuring the support of the comb in a connection position by spring mechanisms located inside the hole (8, 9, 10, 11; 47) and comprising at least one flexible leaf spring (13, 40; 20) which is able to pin the tooth after its introduction into the hole (8, 9, 10, 11; 47). - arranged in a row on a mounting rail inside a box; - cooperating, via connecting terminals, with a device of the comb type designed for bridging the group of appliances, extending parallel to the rail and having a plurality of teeth distributing successively several phases and a neutral one, the phase type teeth being located in a row opposite a row of neutral teeth, each neutral tooth being interposed at regular intervals offset between two adjacent phase teeth;
A spectral imager comprising - a physical slit (Se) for spatially filtering light (Ls), wherein the physical slit (Se) is arranged at a physical slit plane (Ps), and narrower in an across-slit direction than in an along-slit direction; - a dispersing element for spreading the light (Ls) passing the physical slit (Se) as a function of wavelength (λ) along a spectral axis (X') corresponding to the across-slit direction; - imaging optics (21,22) to form a detection image (Id) of the light (Ls) onto a detector plane (Pd) which is spectrally resolved along the spectral axis (X'); and - entrance optics configured to receive object light (Lo) from an object and to spatially image the object, at least in the across-slit direction, at the physical slit plane (Ps), wherein the spectral imager has an aperture stop defined by the entrance optics and/or a physical aperture along a light path through the entrance optics; the spectral imager further comprising - a slit homogenizer formed by a lens or mirror which is translation symmetric in the along-slit direction, wherein the slit homogenizer is configured to spatially image the aperture stop in the across-slit direction as a virtual slit image (Ih); wherein formation of the detection image (Id) which is spectrally resolved along the spectral axis (X') includes spatially imaging the virtual slit image (Ih), at least in the across-slit direction, at the detector plane (Pd), wherein the slit homogenizer is arranged between the physical slit (Se) and the imaging optics (21,22). - a physical slit (Se) for spatially filtering light (Ls), wherein the physical slit (Se) is arranged at a physical slit plane (Ps), and narrower in an across-slit direction than in an along-slit direction; - a dispersing element for spreading the light (Ls) passing the physical slit (Se) as a function of wavelength (λ) along a spectral axis (X') corresponding to the across-slit direction; - imaging optics (21,22) to form a detection image (Id) of the light (Ls) onto a detector plane (Pd) which is spectrally resolved along the spectral axis (X'); and - entrance optics configured to receive object light (Lo) from an object and to spatially image the object, at least in the across-slit direction, at the physical slit plane (Ps), - a slit homogenizer formed by a lens or mirror which is translation symmetric in the along-slit direction, wherein the slit homogenizer is configured to spatially image the aperture stop in the across-slit direction as a virtual slit image (Ih); wherein formation of the detection image (Id) which is spectrally resolved along the spectral axis (X') includes spatially imaging the virtual slit image (Ih), at least in the across-slit direction, at the detector plane (Pd), wherein the slit homogenizer is arranged between the physical slit (Se) and the imaging optics (21,22).
A method for determining phase adjustment filters for an associated sound generating system comprising at least two audio reproduction channels, where each of said audio reproduction channels has an input signal and at least one loudspeaker located in a listening environment, wherein said method comprises: - estimating, for each of said audio reproduction channels, an acoustic transfer function at each of M ≥ 1 spatial positions, also referred to as measurement points, in said listening environment, based on sound measurements at said spatial positions; and - determining, based on said acoustic transfer functions, phase adjustment filters ( F 1 ( ƒ) and F 2 ( ƒ)) to be applied, respectively, to said audio reproduction channels, to reduce the inter-loudspeaker differential phase between said audio reproduction channels in p listener positions, wherein each listener position is associated with a single point or with a pair of points, selected from the total of M ≥ 1 measurement points, wherein said step of determining phase adjustment filters ( F 1 ( ƒ) and F 2 ( ƒ)) comprises: - determining p IDP functions φ 1 ( ƒ), φ 2 ( ƒ),..., φ p ( ƒ) between said audio reproduction channels, in a frequency interval ƒ 1 ≤ ƒ ≤ ƒ 2, based on information from said acoustic transfer functions at said M spatial positions; - determining an aggregated IDP function φ ( ƒ) based on said p IDP functions φ 1 ( ƒ), φ 2 ( ƒ),..., φ p ( ƒ); and - computing said phase adjustment filters ( F 1 ( ƒ) and F 2 ( ƒ)) based on said aggregated IDP function. - estimating, for each of said audio reproduction channels, an acoustic transfer function at each of M ≥ 1 spatial positions, also referred to as measurement points, in said listening environment, based on sound measurements at said spatial positions; and - determining, based on said acoustic transfer functions, phase adjustment filters ( F 1 ( ƒ) and F 2 ( ƒ)) to be applied, respectively, to said audio reproduction channels, to reduce the inter-loudspeaker differential phase between said audio reproduction channels in p listener positions, wherein each listener position is associated with a single point or with a pair of points, selected from the total of M ≥ 1 measurement points, - determining p IDP functions φ 1 ( ƒ), φ 2 ( ƒ),..., φ p ( ƒ) between said audio reproduction channels, in a frequency interval ƒ 1 ≤ ƒ ≤ ƒ 2, based on information from said acoustic transfer functions at said M spatial positions; - determining an aggregated IDP function φ ( ƒ) based on said p IDP functions φ 1 ( ƒ), φ 2 ( ƒ),..., φ p ( ƒ); and - computing said phase adjustment filters ( F 1 ( ƒ) and F 2 ( ƒ)) based on said aggregated IDP function.