mhurhangee/ep-ind-claims huggingface dataset:
A multiphase permeability determination method that comprises the following steps: i. obtaining a three-dimensional pore/matrix model of a sample by scanning a physical rock sample to obtain a three-dimensional digital image; and deriving the pore/matrix model from the three-dimensional image; wherein the three-dimensional image is made up of three-dimensional volume elements each having a value indicative of the composition of the sample at that point; ii. determining a flow axis wherein said determination is based on a standard deviation of porosity; iii. verifying that a dimension of the model along the flow axis exceeds a dimension of a representative elementary volume of the model, wherein the REV is determined using a standard deviation of porosity determined for each subvolume of the model; iv. selecting a flow direction along the flow axis of the model; v. extending the model by mirroring the model in an axial direction of the model when pore statistics of the model at a given saturation of the model are mismatched for different percolating phases; vi. increasing the resolution of the three-dimensional image of the sample and repeating the previous steps i-v when a dimension of a smallest nonpercolating sphere in determining a percolation threshold of the model is below a predetermined threshold; vii. measuring relative permeability using the model; and viii. displaying relative permeability measurements to user. i. obtaining a three-dimensional pore/matrix model of a sample by scanning a physical rock sample to obtain a three-dimensional digital image; and deriving the pore/matrix model from the three-dimensional image; wherein the three-dimensional image is made up of three-dimensional volume elements each having a value indicative of the composition of the sample at that point; ii. determining a flow axis wherein said determination is based on a standard deviation of porosity; iii. verifying that a dimension of the model along the flow axis exceeds a dimension of a representative elementary volume of the model, wherein the REV is determined using a standard deviation of porosity determined for each subvolume of the model; iv. selecting a flow direction along the flow axis of the model; v. extending the model by mirroring the model in an axial direction of the model when pore statistics of the model at a given saturation of the model are mismatched for different percolating phases; vi. increasing the resolution of the three-dimensional image of the sample and repeating the previous steps i-v when a dimension of a smallest nonpercolating sphere in determining a percolation threshold of the model is below a predetermined threshold; vii. measuring relative permeability using the model; and viii. displaying relative permeability measurements to user.
Rotor for a reluctance machine comprising a cylindrical soft-magnetic element, wherein the soft-magnetic element is constructed from rotor laminations which have cutouts for forming flux barriers (2, 3, 4, 5), wherein one or more flux barriers (2, 3, 4, 5) is/are at least partially filled with a filler material, which filler material of these flux barriers (2, 3, 4, 5) reaches the rotor periphery and forms a portion of the rotor periphery, characterized in that the flux barriers (2, 3, 4, 5) of the rotor are at least partially filled with the filler material in such a way that a radially inner rotor region with unfilled flux barrier regions or unfilled flux barriers (2, 3, 4, 5) and a radially outer region with filled flux barrier regions or flux barriers (2, 3, 4, 5) are produced, wherein one or more flux barriers (2, 3, 4, 5) is/are divided into two or more by one or more webs, wherein at least some of these webs have a curved edge which adjoins the flux barrier (2, 3, 4, 5), in particular an arcuate edge.
A gear reducer comprising a casing, a worm screw which is rotatably mounted in said casing by at least a first bearing, such as a ball bearing, and which meshes with a worm wheel, said reducer also comprising a meshing clearance compensation spring interposed between the casing and the first bearing in order to radially press said worm screw against the teeth of the worm wheel, the wall of the casing being pierced, in the extension of the axis (XX') of the worm screw, by an orifice sealed by a stopper, said reducer being characterized in that the meshing clearance compensation spring comprises at least one retaining lug (16, 17, 18) which projects radially from the axis (XX') of the worm screw and in that the hub of the stopper has a guide wall substantially transverse to the axis (XX') of the worm screw, which is designed to be positioned axially facing said at least one retaining lug (16, 17, 18), so as to be able to cooperate with the at least one retaining lug (16, 17, 18) to hinder the axial displacement of the spring beyond a predetermined operating stroke.
A truck, comprising a camera housing that encloses a camera module, wherein the camera housing is fixated to a fixation area on a cabin interior facing side of a windscreen of the truck, the camera housing comprising: - a mount section, arranged for mounting the camera module to the windscreen at a mounting distance from a roof panel of the truck, for capturing images of an object detection area in front of the truck; - a bridge section, extending from the mount section towards the roof panel and spanning the mounting distance adjacently along the fixation area; wherein the bridge section comprises one or more channels (11, 12) that extend between the camera module and the roof panel, for protectively guiding cables therebetween; wherein the bridge section comprises a clearance that exposes at least part of the fixation area between the camera module and the roof panel; characterized in that the camera module comprises a number of camera devices, wherein each camera device of the number of camera devices comprises a connector for connecting to a cable, wherein the bridge section comprises a number of channels (11, 12) equal to the number of camera devices, and wherein each channel (11, 12) of the number of channels is arranged for protectively guiding a cable between a respective connector and the roof panel. - a mount section, arranged for mounting the camera module to the windscreen at a mounting distance from a roof panel of the truck, for capturing images of an object detection area in front of the truck; - a bridge section, extending from the mount section towards the roof panel and spanning the mounting distance adjacently along the fixation area; wherein the bridge section comprises one or more channels (11, 12) that extend between the camera module and the roof panel, for protectively guiding cables therebetween; wherein the bridge section comprises a clearance that exposes at least part of the fixation area between the camera module and the roof panel; characterized in that the camera module comprises a number of camera devices, wherein each camera device of the number of camera devices comprises a connector for connecting to a cable, wherein the bridge section comprises a number of channels (11, 12) equal to the number of camera devices, and wherein each channel (11, 12) of the number of channels is arranged for protectively guiding a cable between a respective connector and the roof panel.
A contact lens package comprising: a lid; a base comprising: a cavity configured to house a contact lens and packaging solution, the contact lens having a concave posterior side which is configured to rest against the eye in use and a convex anterior side which is configured to face away from the eye in use, wherein the cavity is configured to house the contact lens in a convex position wherein the convex anterior side is oriented towards the lid; and a lever configured to hinge along a pivot line in the base when a force is applied to the lever; and a lens support intersecting the pivot line such that the force applied to the lever is configured to cause the lens support to lift the contact lens out of the packaging solution in a position on the lens support capable of single-touch transfer by a user. a lid; a base comprising: a cavity configured to house a contact lens and packaging solution, the contact lens having a concave posterior side which is configured to rest against the eye in use and a convex anterior side which is configured to face away from the eye in use, wherein the cavity is configured to house the contact lens in a convex position wherein the convex anterior side is oriented towards the lid; and a lever configured to hinge along a pivot line in the base when a force is applied to the lever; and a cavity configured to house a contact lens and packaging solution, the contact lens having a concave posterior side which is configured to rest against the eye in use and a convex anterior side which is configured to face away from the eye in use, wherein the cavity is configured to house the contact lens in a convex position wherein the convex anterior side is oriented towards the lid; and a lever configured to hinge along a pivot line in the base when a force is applied to the lever; and a lens support intersecting the pivot line such that the force applied to the lever is configured to cause the lens support to lift the contact lens out of the packaging solution in a position on the lens support capable of single-touch transfer by a user.
A catheter assembly, comprising: a catheter adapter having a distal end comprising an intravenous catheter, a proximal end configured to receive a needle assembly, and an interior lumen extending therebetween; and an extension tube comprising a first lumen and a second lumen, said first and second lumens being in fluid communication with the interior lumen at first end of the extension tube, a second end of the extension tube having an infusion port in fluid communication with the first lumen, and a blood collection port in fluid communication with the second lumen. a catheter adapter having a distal end comprising an intravenous catheter, a proximal end configured to receive a needle assembly, and an interior lumen extending therebetween; and an extension tube comprising a first lumen and a second lumen, said first and second lumens being in fluid communication with the interior lumen at first end of the extension tube, a second end of the extension tube having an infusion port in fluid communication with the first lumen, and a blood collection port in fluid communication with the second lumen.
A feeding system for supplying a solid feed material comprising organic material to a reactor, the feeding system comprising a cylindrical housing containing a feed screw having an upstream end and a downstream end, the feed screw comprising a helical screw blade and a screw axis, wherein the helical screw blade has an upstream section and a downstream section, wherein the helical screw blade has a helix pitch that is increasing in downstream direction, characterized in that the screw axis is extending beyond the screw blade at the downstream end of the feed screw such that an annular sealing space is defined between the cylindrical housing and the extending part of the screw axis, wherein the cylindrical housing is extending beyond the extending screw axis, and wherein the ratio of the length over which the cylindrical housing is extending beyond the end of the screw blade and the inner diameter of the cylindrical housing is in the range of from 2.5 to 8.0.
A receiving method used in a receiver for receiving framed signals including a plurality of slots, each of which slots includes multiplexed signals that have been interleaved by a transmitter, each slot including a pilot signal, the method comprising the steps of: deinterleaving the framed signals to obtain deinterleaved signals; demultiplexing the deinterleaved signals to obtain demultiplexed signals; decoding the demultiplexed signals to obtain information data; wherein the signals that have been interleaved at the transmitter have an interleaved sequence as that obtained from an interleaving process at the transmitter by: writing said multiplexed signals into a matrix having B rows and F columns,; permuting signals in said matrix by permuting columns of said matrix on the basis of a predetermined rule; and reading signals in said matrix; characterized in that the number F of columns of said matrix is K times the number of slots per frame and K is a positive integer greater than one, and wherein the length L of a column is such that L multiplied by K is equal to the size of a slot, and in that the receiver applies a deinterleaving process inverse to the interleaving process applied at the transmitter. deinterleaving the framed signals to obtain deinterleaved signals; demultiplexing the deinterleaved signals to obtain demultiplexed signals; decoding the demultiplexed signals to obtain information data; wherein the signals that have been interleaved at the transmitter have an interleaved sequence as that obtained from an interleaving process at the transmitter by: writing said multiplexed signals into a matrix having B rows and F columns,; permuting signals in said matrix by permuting columns of said matrix on the basis of a predetermined rule; and reading signals in said matrix; writing said multiplexed signals into a matrix having B rows and F columns,; permuting signals in said matrix by permuting columns of said matrix on the basis of a predetermined rule; and reading signals in said matrix; characterized in that the number F of columns of said matrix is K times the number of slots per frame and K is a positive integer greater than one, and wherein the length L of a column is such that L multiplied by K is equal to the size of a slot, and in that the receiver applies a deinterleaving process inverse to the interleaving process applied at the transmitter.
A sprayable oil-in-water quick break emulsion composition, for application to a plant to control plant pests, the oil-in-water quick break emulsion composition comprising: a paraffinic oil; an emulsifier comprising a block copolymer emulsifier, an alkyl polysaccharide emulsifier, a blend of a random polymeric emulsifier and a block copolymer emulsifier, a blend of a polyoxyethylene quaternary amine emulsifier and an alkyl glyceride emulsifier or a blend of an alcohol ethoxylate emulsifier and an alkyl glyceride emulsifier; 0.01% to 0.1% by weight of a stabilizer selected from the group consisting of a benzoic acid, a benzoic acid salt, 2-aminobenzoate, 3-aminobenzoate, 4-aminobenzoate, a paraben, and mixtures of two or more thereof; and water. a paraffinic oil; an emulsifier comprising a block copolymer emulsifier, an alkyl polysaccharide emulsifier, a blend of a random polymeric emulsifier and a block copolymer emulsifier, a blend of a polyoxyethylene quaternary amine emulsifier and an alkyl glyceride emulsifier or a blend of an alcohol ethoxylate emulsifier and an alkyl glyceride emulsifier; 0.01% to 0.1% by weight of a stabilizer selected from the group consisting of a benzoic acid, a benzoic acid salt, 2-aminobenzoate, 3-aminobenzoate, 4-aminobenzoate, a paraben, and mixtures of two or more thereof; and water.
A method of automatically allocating an area code to a first femtocell (f 7), a plurality of area codes (C 1 -C 4) being allocated to a plurality of second femtocells (f 1 -f 6), the method comprising the steps of: - determining the physical location of the first femtocell (f 7); - computing distances from the first femtocell to each of the second femtocells (f1-f6) using location coordinates of the first femtocell and of the second femtocells; - determining that area code (C 1) of the plurality of area codes (C 1 -C 4) which is used furthest away from the first femtocell (f 7) by a second femtocell (C 1), without being used by a closer second femtocell, wherein the step of determining the area code is carried out based on the determined distances; and - allocating the determined area code (C 1) to the first femtocell (f 7). - determining the physical location of the first femtocell (f 7); - computing distances from the first femtocell to each of the second femtocells (f1-f6) using location coordinates of the first femtocell and of the second femtocells; - determining that area code (C 1) of the plurality of area codes (C 1 -C 4) which is used furthest away from the first femtocell (f 7) by a second femtocell (C 1), without being used by a closer second femtocell, wherein the step of determining the area code is carried out based on the determined distances; and - allocating the determined area code (C 1) to the first femtocell (f 7).
Medical device suited to receiving an additional device, comprising: said additional device; a handle comprising: • an element for grasping which is situated at a distance from the medical device that allows for the passage of the fingers, • a mechanical-connection element (13, 14) that allows the element for grasping to be fixed to the medical device, and • a support suited to receiving and at least temporarily fixing the additional device on the element for grasping; and a fluidic connection to the additional device, in which the additional device and the element for grasping are distinct elements which form a handle assembly designed to allow a person to grasp the assembly and to move the medical device, in which the additional device has a substantially therapeutic function. said additional device; a handle comprising: • an element for grasping which is situated at a distance from the medical device that allows for the passage of the fingers, • a mechanical-connection element (13, 14) that allows the element for grasping to be fixed to the medical device, and • a support suited to receiving and at least temporarily fixing the additional device on the element for grasping; and • an element for grasping which is situated at a distance from the medical device that allows for the passage of the fingers, • a mechanical-connection element (13, 14) that allows the element for grasping to be fixed to the medical device, and • a support suited to receiving and at least temporarily fixing the additional device on the element for grasping; a fluidic connection to the additional device, in which the additional device and the element for grasping are distinct elements which form a handle assembly designed to allow a person to grasp the assembly and to move the medical device, in which the additional device has a substantially therapeutic function.
A device for analysing liquid samples, wherein the device comprises at least one sample layer comprising a plurality of liquid permeable test sites separated from each other by a liquid impermeable barrier region, wherein said device comprises an inlet part, wherein said inlet part comprises a plurality of inlet channels, and wherein said inlet channels lead to respective test sites of said at least one sample layer, such that a flow connection between said inlet channels and said respective test sites is established or can be established, wherein said inlet channels comprise first openings, which are positioned in a first plane (p 1), wherein said first openings are accessible from the outside of said inlet part, such that liquid samples are loadable into said inlet channels by means of said first openings, and wherein said inlet channels comprise second openings, which are positioned in a second plane (p 2) adjacent to said test sites, such that liquid samples can flow from said inlet channels to respective test sites via said second openings, wherein a first surface area is defined by the positions of the first openings in said first plane (p 1), and a second surface area is defined by the positions of said second openings in said second plane (p 2), wherein said second surface area is smaller than said first surface area, wherein the boundary of the first surface area is defined by an envelope line enclosing the outermost first openings, and the boundary of the second surface area is defined by an envelope line enclosing the outermost second openings, characterised in that at least one of said inlet channels comprises an angled section, wherein said angled section is arranged at an angle (α) of 5° to 89° with respect to a plane (p) defined by said at least one sample layer.
An electronic apparatus comprising: a display; a proximity sensor for sensing proximity and a motion direction of a subject, the proximity sensor comprising: a plurality of light emitters arranged to correspond to different directions of motion; a photodetector; and a control unit; the electronic apparatus being characterised in that the control unit is configured to: repeatedly switch on and off only those light emitters out of the plurality of light emitters which correspond to a particular direction of motion amongst the different directions of motion while a user interface screen that can be scrolled only in the particular direction is being displayed on the display, and in response to detecting motion of the subject in the particular direction using the photodetector, scroll the user interface screen in the particular direction. a display; a proximity sensor for sensing proximity and a motion direction of a subject, the proximity sensor comprising: a plurality of light emitters arranged to correspond to different directions of motion; a photodetector; and a plurality of light emitters arranged to correspond to different directions of motion; a photodetector; and a control unit; repeatedly switch on and off only those light emitters out of the plurality of light emitters which correspond to a particular direction of motion amongst the different directions of motion while a user interface screen that can be scrolled only in the particular direction is being displayed on the display, and in response to detecting motion of the subject in the particular direction using the photodetector, scroll the user interface screen in the particular direction.