mhurhangee/patent-ind-claim-en huggingface dataset:
A system for assessing occlusion , the system comprising: a treatment device including: an occlusion element ; a shaft , the shaft having a central lumen and a distal opening , the occlusion element being attached to the shaft ; and an electrode distal to the occlusion element ; and a console including: a fluid source in fluid communication with the central lumen and the distal opening of the shaft , the fluid being a mixture of a contrast medium and an impedance-modifying agent; and a processor programmed to receive impedance values recorded by the electrode , to calculate a change in the impedance values over time, and to determine an occlusion status based on the change in the impedance data. a treatment device including: an occlusion element ; a shaft , the shaft having a central lumen and a distal opening , the occlusion element being attached to the shaft ; and an electrode distal to the occlusion element ; and an occlusion element ; a shaft , the shaft having a central lumen and a distal opening , the occlusion element being attached to the shaft ; and an electrode distal to the occlusion element ; and a console including: a fluid source in fluid communication with the central lumen and the distal opening of the shaft , the fluid being a mixture of a contrast medium and an impedance-modifying agent; and a processor programmed to receive impedance values recorded by the electrode , to calculate a change in the impedance values over time, and to determine an occlusion status based on the change in the impedance data. a fluid source in fluid communication with the central lumen and the distal opening of the shaft , the fluid being a mixture of a contrast medium and an impedance-modifying agent; and a processor programmed to receive impedance values recorded by the electrode , to calculate a change in the impedance values over time, and to determine an occlusion status based on the change in the impedance data.
A structure comprising: a. a support element comprising a glass or glass ceramic; b. a nanoparticulate layer comprising nanoparticles, the nanoparticles comprising silica, alumina, zirconia, titania or combinations thereof; c. a binder; and d. a capping layer comprising perfluoropolyethersilane; wherein the binder comprises an alkali silicate, alkali borate or alkali phosphate. a. a support element comprising a glass or glass ceramic; b. a nanoparticulate layer comprising nanoparticles, the nanoparticles comprising silica, alumina, zirconia, titania or combinations thereof; c. a binder; and d. a capping layer comprising perfluoropolyethersilane;
Tufting unit for a mobile tufting machine, wherein the tufting unit has the following: - a yarn infeed installation for simultaneously feeding a number of yarn strands in parallel; - at least one insertion element ; - a yarn transport gripper which is configured for transporting a respective free end of the yarn strands away from the yarn infeed installation such that each insertion element is in each case assigned one yarn strand ; - a cutting unit which is configured for cutting the yarn strands such that, of each yarn strand assigned to an insertion element , one yarn portion that is assigned to the respective insertion element remains; - wherein each insertion element is configured for inserting the respective assigned yarn portion into a substrate that is situated below the tufting unit , characterized in that the yarn infeed installation has a plurality of rotating yarn holders . - a yarn infeed installation for simultaneously feeding a number of yarn strands in parallel; - at least one insertion element ; - a yarn transport gripper which is configured for transporting a respective free end of the yarn strands away from the yarn infeed installation such that each insertion element is in each case assigned one yarn strand ; - a cutting unit which is configured for cutting the yarn strands such that, of each yarn strand assigned to an insertion element , one yarn portion that is assigned to the respective insertion element remains; - wherein each insertion element is configured for inserting the respective assigned yarn portion into a substrate that is situated below the tufting unit , characterized in that the yarn infeed installation has a plurality of rotating yarn holders .
Mounting frame for shower trays of the type comprising a top slab formed from at least four trapezial plates and an inner body adhered to the top slab , said mounting frame comprising a perimeter frame formed by two longitudinal bars and two transverse bars , both the longitudinal bars and the transverse bars each comprising at least one channeled segment , which allows completely or partially housing an end of a corresponding trapezial plate of the top slab , preferably the widest end, characterized in that the mounting frame comprises a bottom support arranged at a lower level of the perimeter frame , such that the trapezial plates , when said ends of the trapezoidal plates are housed in the interior of said mounting frame , converge in said bottom support , thus defining a camber of the shower tray and the final shape of the shower tray , and in that the transverse bars are slidable along the longitudinal bars , where they can be locked at any point of the longitudinal bars .
A separator formed of a metallic material and having a plurality of pores, wherein some regions have a hydrophilic surface and some other regions have a hydrophobic surface, characterized in that the separator comprises: a first metallic wire having a hydrophilic surface; and a second metallic wire which is woven with the first metallic wire so as to form a predetermined size of pores and has a hydrophobic surface, wherein the first metallic wire and the second metallic wire are continuously woven along a first direction, and wherein the first metallic wire and the second metallic wire intersect to be intertwined. a first metallic wire having a hydrophilic surface; and a second metallic wire which is woven with the first metallic wire so as to form a predetermined size of pores and has a hydrophobic surface, wherein the first metallic wire and the second metallic wire are continuously woven along a first direction, and wherein the first metallic wire and the second metallic wire intersect to be intertwined.
An image processing method comprising: receiving input image data ; reading a header (H) included at a predetermined location in the input image data ; and generating hologram data configured to display a hologram image; characterized in that generating the hologram data comprises performing a Fourier calculation on the input image data based on at least one parameter recorded in the header (H), and performing pixel encoding on the image data subjected to the Fourier calculation, the at least one parameter recorded in the header (H) comprises at least depth information comprising variable location information of a plurality of depth layers of the hologram image, to adapt locations of the plurality of depth layers in accordance with occupancy by a main object of interest in the holographic image, and the image processing method further comprises dynamically changing the locations of the plurality of depth layers of the reproduced holographic image based on the variable location information. receiving input image data ; reading a header (H) included at a predetermined location in the input image data ; and generating hologram data configured to display a hologram image; characterized in that generating the hologram data comprises performing a Fourier calculation on the input image data based on at least one parameter recorded in the header (H), and performing pixel encoding on the image data subjected to the Fourier calculation, the at least one parameter recorded in the header (H) comprises at least depth information comprising variable location information of a plurality of depth layers of the hologram image, to adapt locations of the plurality of depth layers in accordance with occupancy by a main object of interest in the holographic image, and the image processing method further comprises dynamically changing the locations of the plurality of depth layers of the reproduced holographic image based on the variable location information.
Lift-tilt device for a waste collection vehicle, comprising a pivot arm and a receptacle arranged thereon for waste containers, wherein the receptacle has a central part comprising a central comb and a central clamp for captively holding a waste container, and has a barrel support , wherein the receptacle has at least one side part having a clamping portion comprising a side comb and a side clamp for captively holding a waste container, and having a support portion comprising a barrel support , wherein the clamping portion and the support portion are hingedly connected to the central part such that the at least one side part can be brought from a folded-out position, in which it widens the central part to receive wider waste containers, into a folded-in position.
Device for cleaning an extruder intended to operate with elastomer mixtures comprising a cradle supporting a screw and a cylinder , the screw being made to turn about the longitudinal axis X-X' of the cylinder when it is driven in rotation by driving means, the cylinder comprising a supply inlet for elastomer mixtures and an outlet emerging directly in an extrusion head mounted on a support , characterized in that the cradle is mounted movable in translation with respect to the support of the extrusion head in a direction parallel to the longitudinal axis X-X' between a first position in which the cylinder and the extrusion head are in tight contact to allow the elastomer mixture to pass through the extrusion head and a second position in which the cylinder is separated from the extrusion head to perform the cleaning, the seal plane between the cylinder and the extrusion head along which the separation is made and then the join is made between the cylinder and the extrusion head upon the axial displacement of the cradle , being substantially axisymmetrical with respect to the axis X-X' and in that said device comprises an automatic coupling mechanism for rapidly locking and unlocking the cylinder and the extrusion head and allowing the displacement of the cradle between the two positions.
Permanent-magnet dynamoelectric machine (PDM), comprising a stator (STT) and a rotor (RTR) mounted rotatably about a longitudinal axis (X), wherein the stator (STT) has a winding system (WND), wherein permanent magnets (PMG) are arranged on the rotor (RTR), wherein the magnetic material of the permanent magnets (PMG) has a preferred direction (PFD) for the magnetization, so that paths through the permanent magnet (PMG) can be defined in the direction of the local preferred direction (PFD) in each case, wherein a magnet dimension (MTH) in the preferred direction (PFD) assigned to a point on a pole face (PAR) is defined as the path length from this point to a corresponding point on the other pole face along the preferred direction (PFD) through the permanent magnet (PMG), wherein a gap (RGP) is formed between the rotor (RTR) and the stator (STT), wherein the winding system (WND) is designed and arranged such that it interacts electromagnetically with the permanent magnets (PMG) of the rotor (RTR) via the gap (RGP), wherein the permanent magnets (PMG) are designed as CeFeB-based magnets, wherein the permanent magnets (PMG) extending at least in portions along the longitudinal axis (X) are designed and arranged in such a way that the permanent magnets (PMG) each have a north pole (NPL) and a south pole (SPL) on the side facing the gap (RGP), characterized in that the magnet dimension (MTH) in the preferred direction (PFD), proceeding from the area centroid of the north pole, is between 1/10 and 1/3 of the rotor diameter there. wherein the stator (STT) has a winding system (WND), wherein permanent magnets (PMG) are arranged on the rotor (RTR), wherein the magnetic material of the permanent magnets (PMG) has a preferred direction (PFD) for the magnetization, so that paths through the permanent magnet (PMG) can be defined in the direction of the local preferred direction (PFD) in each case, wherein a magnet dimension (MTH) in the preferred direction (PFD) assigned to a point on a pole face (PAR) is defined as the path length from this point to a corresponding point on the other pole face along the preferred direction (PFD) through the permanent magnet (PMG), wherein a gap (RGP) is formed between the rotor (RTR) and the stator (STT), wherein the winding system (WND) is designed and arranged such that it interacts electromagnetically with the permanent magnets (PMG) of the rotor (RTR) via the gap (RGP), wherein the permanent magnets (PMG) are designed as CeFeB-based magnets, wherein the permanent magnets (PMG) extending at least in portions along the longitudinal axis (X) are designed and arranged in such a way that the permanent magnets (PMG) each have a north pole (NPL) and a south pole (SPL) on the side facing the gap (RGP), characterized in that the magnet dimension (MTH) in the preferred direction (PFD), proceeding from the area centroid of the north pole, is between 1/10 and 1/3 of the rotor diameter there.
A downhole screen assembly for use in the production of fluids, comprising first and second screens longitudinally coupled together by a coupling , wherein the first screen comprises a first pipe and a first permeable sleeve and the second screen comprises a second pipe and a second permeable sleeve , and wherein the coupling couples the first and second pipes and provides a fluid flow path between the first and second screens , wherein the first and second sleeves are coupled by a centraliser , wherein the centraliser forms a portion of the fluid flow path and the first and second screens extend circumferentially around the first and second pipes , and wherein the first pipe comprises a plurality of ports , each port having an associated valve , wherein the second pipe comprises a solid or non-perforated pipe ; wherein the centraliser is provided between adjacent ends of the first and second screens . wherein the first and second sleeves are coupled by a centraliser , wherein the centraliser forms a portion of the fluid flow path and the first and second screens extend circumferentially around the first and second pipes , and wherein the first pipe comprises a plurality of ports , each port having an associated valve , wherein the second pipe comprises a solid or non-perforated pipe ; wherein the centraliser is provided between adjacent ends of the first and second screens .
An injection molding machine , comprising: an electric ejector configured to eject a molding product from a mold ; an assist actuator configured to assist ejection of the molding product by the electric ejector ; and a controller configured to control an operation of the electric ejector and an operation of the assist actuator, characterized in that the controller is configured to control the operation of the assist actuator by detecting presence or absence of a rotation of a motor of the electric ejector while an electric current is supplied to the motor , or the controller is configured to start the operation of the assist actuator when starting to supply an electric current to the motor of the electric ejector .
A compound of formula (I) in which R represents a (C 1 -C 8 )alkyl group; R1 and R2 independently represent a hydrogen atom, an SO 3 H group or a hydroxyl group, R' represents a group -(CR a R b ) n -X-(CR c R d ) m -[Y-(CR e R f ) o ] t -NR 9 R 10 , R a , R b , R c , R d , R e and R f independently represent a hydrogen atom, a (C 1 -C 8 )alkyl group or a (C 6 -C 10 ) aryl group, X and Y independently represent a group -NR11-, a group -O- or a 5-membered or 6-membered divalent heterocyclic group comprising at least one nitrogen atom, R9 and R10 independently represent a hydrogen atom, a (C 1 -C 8 )alkyl group or form, together with the nitrogen atom that bears them, a 5-membered or 6-membered heterocyclic group, optionally substituted with one or two groups =O or =S, R11 represents a hydrogen atom, a (C 1 -C 8 )alkyl group or a -(CH 2 ) s -NH 2 group, n and o independently represent an integer between 1 and 5, m is equal to 2 or 3, s is equal to 1, 2 or 3, t is equal to 0, 1, 2 or 3, in which m is other than 4, and with the exception of the compounds for which t is equal to 1 and m+n+o is equal to 10, and also the stereoisomers, mixtures of stereoisomers, and/or pharmaceutically acceptable salts thereof. R represents a (C 1 -C 8 )alkyl group; R1 and R2 independently represent a hydrogen atom, an SO 3 H group or a hydroxyl group, R' represents a group -(CR a R b ) n -X-(CR c R d ) m -[Y-(CR e R f ) o ] t -NR 9 R 10 , R a , R b , R c , R d , R e and R f independently represent a hydrogen atom, a (C 1 -C 8 )alkyl group or a (C 6 -C 10 ) aryl group, X and Y independently represent a group -NR11-, a group -O- or a 5-membered or 6-membered divalent heterocyclic group comprising at least one nitrogen atom, R9 and R10 independently represent a hydrogen atom, a (C 1 -C 8 )alkyl group or form, together with the nitrogen atom that bears them, a 5-membered or 6-membered heterocyclic group, optionally substituted with one or two groups =O or =S, R11 represents a hydrogen atom, a (C 1 -C 8 )alkyl group or a -(CH 2 ) s -NH 2 group, n and o independently represent an integer between 1 and 5, m is equal to 2 or 3, s is equal to 1, 2 or 3, t is equal to 0, 1, 2 or 3, in which m is other than 4, and with the exception of the compounds for which t is equal to 1 and m+n+o is equal to 10, and also the stereoisomers, mixtures of stereoisomers, and/or pharmaceutically acceptable salts thereof.
A screen device comprising: a pair of left and right stays which is configured to be joined to left and right brackets of a vehicle ; and a wind screen which is fixed to the left and right stays , wherein the left and right stays and the left and right brackets are joined to each other by inserting either one of the left and right stays or the left and right brackets into the corresponding counterpart of the left and right stays or the left and right brackets , each stay includes a screen fixing portion to which the wind screen is fixed, the screen fixing portion comprising a lower fastening portion and an upper fastening portion , characterised in that the lower fastening portion and the upper fastening portion are disposed such that front ends of the lower fastening portion and the upper fastening portion are directed sideward with respect to a front side of the wind screen , and the left and right stays are supported in an inverted chevron shape as viewed in a front view by the left and right brackets .
A method for calibrating an altitude sensing stereo vision device of an unmanned aerial vehicle , wherein the method comprises: arranging the unmanned aerial vehicle to take off from ground (G) and ascend; deriving at least one first altitude value (10a-15a) from the stereo vision device and obtaining at least one corresponding second altitude value (10b-15b) from another device of the unmanned aerial vehicle during the ascent of the unmanned aerial vehicle; recording the derived at least one first altitude value and the obtained at least one corresponding second altitude value as calibration data; deriving an additional first altitude value from the stereo vision device while the unmanned aerial vehicle flies a route; and adjusting the derived additional first altitude value based on the recorded calibration data without having to obtain any new information from the other device after the ascent. arranging the unmanned aerial vehicle to take off from ground (G) and ascend; deriving at least one first altitude value (10a-15a) from the stereo vision device and obtaining at least one corresponding second altitude value (10b-15b) from another device of the unmanned aerial vehicle during the ascent of the unmanned aerial vehicle; recording the derived at least one first altitude value and the obtained at least one corresponding second altitude value as calibration data; deriving an additional first altitude value from the stereo vision device while the unmanned aerial vehicle flies a route; and adjusting the derived additional first altitude value based on the recorded calibration data without having to obtain any new information from the other device after the ascent.
A method for producing a carbon nanotube-containing composition for synthesizing carbon nanotube aggregates, the method comprising: introducing a ferrocene derivative, a sulfur compound, a carbon source, and a carrier gas into a gas phase flowing in a heating furnace within a temperature range of higher than 1,200°C to 1,800°C, wherein the carbon source substantially consists of benzene or toluene, the carrier gas includes hydrogen in a range of 10% by volume to 85% by volume, the carrier gas has a linear velocity in a range of 500 cm/min to 2,200 cm/min, and sulfur atoms contained in the sulfur compound are included in a range of 0.15 mol to 0.22 mol per 1 mol of iron atoms included in the ferrocene derivative. introducing a ferrocene derivative, a sulfur compound, a carbon source, and a carrier gas into a gas phase flowing in a heating furnace within a temperature range of higher than 1,200°C to 1,800°C, wherein the carbon source substantially consists of benzene or toluene, the carrier gas includes hydrogen in a range of 10% by volume to 85% by volume, the carrier gas has a linear velocity in a range of 500 cm/min to 2,200 cm/min, and sulfur atoms contained in the sulfur compound are included in a range of 0.15 mol to 0.22 mol per 1 mol of iron atoms included in the ferrocene derivative.