mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for computing a three-dimensional model of an object, comprising: at least one directional energy source arranged to directionally illuminate the object from at least three directions; one or more energy sensors arranged to capture images of the object from multiple viewpoints; a processor arranged to receive images captured by the energy sensors, and control the at least one energy source and the energy sensors; the processor being arranged to control the at least one energy source and one or more energy sensors to capture for each energy sensor, and for each said direction and said viewpoint, at least one corresponding single-direction image which shows the object illuminated in the said direction; the processor further being arranged to combine corresponding ones of said single-direction images computationally to produce combined-direction images for each of the viewpoints, the combined-direction images each showing the object illuminated in a plurality of the directions; the processor further being arranged: to analyze the combined-direction images stereoscopically to obtain an initial model of the object; to obtain photometric data from the single-direction images; and to refine the initial model using a photometric reconstruction technique, which uses the photometric data. at least one directional energy source arranged to directionally illuminate the object from at least three directions; one or more energy sensors arranged to capture images of the object from multiple viewpoints; a processor arranged to receive images captured by the energy sensors, and control the at least one energy source and the energy sensors; the processor being arranged to control the at least one energy source and one or more energy sensors to capture for each energy sensor, and for each said direction and said viewpoint, at least one corresponding single-direction image which shows the object illuminated in the said direction; the processor further being arranged to combine corresponding ones of said single-direction images computationally to produce combined-direction images for each of the viewpoints, the combined-direction images each showing the object illuminated in a plurality of the directions; the processor further being arranged: to analyze the combined-direction images stereoscopically to obtain an initial model of the object; to obtain photometric data from the single-direction images; and to refine the initial model using a photometric reconstruction technique, which uses the photometric data. to analyze the combined-direction images stereoscopically to obtain an initial model of the object; to obtain photometric data from the single-direction images; and to refine the initial model using a photometric reconstruction technique, which uses the photometric data.
A chamfering device for chamfering toothed workpieces, said chamfering device comprising: a chamfering head comprising a first tool axis of rotation (B), said chamfering head being operable to rotate a first chamfering tool about said first axis of rotation (B) thereby enabling chamfering by a first material removal method, the first chamfering tool being capable of being angularly positioned by swiveling about a swivel axis (A), such that, in both swivel positions for accessing the two end faces of the workpiece with the same direction of rotation of a drive for the first tool , the cutting directions are opposite to each other at opposite ends of a tooth slot of the workpiece, wherein said chamfering head comprises a second tool axis of rotation (T) not coincident with the first axis of rotation (B) and is further operable to rotate a second chamfering tool about said second axis of rotation (T) thereby enabling chamfering by a second material removal method, characterised in that said second chamfering tool is swivelled together with the first chamfering tool when swivelling about the swivel axis (A), and in that said first chamfering tool and said second chamfering tool are different from one another and wherein said first material removal method and said second material removal method are different from one another. a chamfering head comprising a first tool axis of rotation (B), said chamfering head being operable to rotate a first chamfering tool about said first axis of rotation (B) thereby enabling chamfering by a first material removal method, the first chamfering tool being capable of being angularly positioned by swiveling about a swivel axis (A), such that, in both swivel positions for accessing the two end faces of the workpiece with the same direction of rotation of a drive for the first tool , the cutting directions are opposite to each other at opposite ends of a tooth slot of the workpiece, wherein said chamfering head comprises a second tool axis of rotation (T) not coincident with the first axis of rotation (B) and is further operable to rotate a second chamfering tool about said second axis of rotation (T) thereby enabling chamfering by a second material removal method, characterised in that said second chamfering tool is swivelled together with the first chamfering tool when swivelling about the swivel axis (A), and in that said first chamfering tool and said second chamfering tool are different from one another and wherein said first material removal method and said second material removal method are different from one another.
A cell counting system , comprising: a sample holder for holding a set of cells , wherein the sample holder has a primary loading direction for loading a sample including the set of cells into the sample holder ; a sensing system adapted to produce a digital image of a viewing area of a sample holder ; a motion system configured to change the relative positions of the sample holder and the sensing system to a plurality of configurations, such that the viewing area encompasses a different viewable portion of the sample holder in each configuration, wherein the encompassed viewable portions are arranged generally transversely with respect to the primary loading direction of the sample into the sample holder ; an enclosure configured to house at least some of the system and defining a slot into which the sample holder is inserted, wherein the loading direction of the sample holder into the enclosure of the cell counting system is the same as the primary loading direction of the sample into the sample holder , and wherein the motion system is configured to rotate the sample holder while one end of the sample holder remains between sides of the slot ; and a controller configured to direct the sensing system to capture a digital image when the sample holder and sensing system are in each of the plurality of configurations. a sample holder for holding a set of cells , wherein the sample holder has a primary loading direction for loading a sample including the set of cells into the sample holder ; a sensing system adapted to produce a digital image of a viewing area of a sample holder ; a motion system configured to change the relative positions of the sample holder and the sensing system to a plurality of configurations, such that the viewing area encompasses a different viewable portion of the sample holder in each configuration, wherein the encompassed viewable portions are arranged generally transversely with respect to the primary loading direction of the sample into the sample holder ; an enclosure configured to house at least some of the system and defining a slot into which the sample holder is inserted, wherein the loading direction of the sample holder into the enclosure of the cell counting system is the same as the primary loading direction of the sample into the sample holder , and wherein the motion system is configured to rotate the sample holder while one end of the sample holder remains between sides of the slot ; and a controller configured to direct the sensing system to capture a digital image when the sample holder and sensing system are in each of the plurality of configurations.
A mixed-flow type fan wheel for a fan assembly comprising: (a) a wheel back having an outer surface forming one of a truncated dome-shape and a truncated cone-shape; (b) a plurality of fan blades radially spaced about and mounted to the wheel back outer surface : each of the fan blades having a first end and a second end , the first end being mounted and oriented with respect to the wheel back to define an interface contour projection at the wheel back outer surface ; and (c) a wheel cone having a truncated cone shape defining an inside surface to which the second end of each fan blade is attached; characterised in that each of the fan blades is formed from a segment of an airfoil-shaped aluminum extrusion defining at least one internal cavity; and in that the fan blade first end has a compound cut profile that is curved in at least one direction and that is curved in at least one other direction, the compound cut profile matching the first interface contour projection such that the first end of the blade is mounted flush to the base outer surface . (a) a wheel back having an outer surface forming one of a truncated dome-shape and a truncated cone-shape; (b) a plurality of fan blades radially spaced about and mounted to the wheel back outer surface : each of the fan blades having a first end and a second end , the first end being mounted and oriented with respect to the wheel back to define an interface contour projection at the wheel back outer surface ; and (c) a wheel cone having a truncated cone shape defining an inside surface to which the second end of each fan blade is attached; characterised in that each of the fan blades is formed from a segment of an airfoil-shaped aluminum extrusion defining at least one internal cavity; and in that the fan blade first end has a compound cut profile that is curved in at least one direction and that is curved in at least one other direction, the compound cut profile matching the first interface contour projection such that the first end of the blade is mounted flush to the base outer surface .
A method performed by a wireless device for handling a conditional mobility procedure, the method comprising: determining information from measurements relating to a trigger condition that triggers the conditional mobility procedure to be performed by the wireless device, wherein the information relates to one or more non-triggered potential target cells, which are potential target cells of the conditional mobility procedure, for which the trigger condition was not triggered; and transmitting the information to a network node ; wherein the information is transmitted to the network node based on determining that the wireless device has completed handover to a target cell. determining information from measurements relating to a trigger condition that triggers the conditional mobility procedure to be performed by the wireless device, wherein the information relates to one or more non-triggered potential target cells, which are potential target cells of the conditional mobility procedure, for which the trigger condition was not triggered; and transmitting the information to a network node ; wherein the information is transmitted to the network node based on determining that the wireless device has completed handover to a target cell.
A botanical antioxidant composition comprising a botanical antioxidant extract blend comprising: (a) a first antioxidant botanical extract which is a combination consisting of grape seed extract, acai fruit extract, and cocoa extract, and (b) a second antioxidant botanical extract derived from turmeric (curcuma longa), and (c) a third antioxidant botanical extract comprising eucommia (eucommia ulmoides), (d) a fourth antioxidant botanical extract which is an extract from green tea (camellia sinesis). (a) a first antioxidant botanical extract which is a combination consisting of grape seed extract, acai fruit extract, and cocoa extract, and (b) a second antioxidant botanical extract derived from turmeric (curcuma longa), and (c) a third antioxidant botanical extract comprising eucommia (eucommia ulmoides), (d) a fourth antioxidant botanical extract which is an extract from green tea (camellia sinesis).
A coated medical balloon comprising a polymeric material having a surface with a therapeutic agent-containing mixture coated thereon, wherein the mixture comprises a therapeutic agent, an unsaturated carboxylic acid, an alkali metal salt of the unsaturated carboxylic acid, and an optional excipient.
A liquid spray gun nozzle assembly for a gravity-fed liquid spray gun comprising a coating liquid inlet portion comprising a liquid connector for connection to an external liquid source ; a coating liquid outlet portion comprising a liquid nozzle for spraying a coating liquid fed into the nozzle assembly through the coating liquid inlet portion , the liquid nozzle being disposed along a spray axis ; a coating liquid flow path fluidly connecting the coating liquid inlet portion to the liquid nozzle ; a spray gun connection portion opposite the coating liquid outlet portion adapted to connect the liquid spray gun nozzle assembly to a compatible liquid spray gun body , the spray gun connection portion comprising a nozzle assembly sealing surface adapted to seal the liquid spray gun nozzle assembly to the compatible liquid spray gun body , the nozzle assembly sealing surface comprising first and second sealing members that are each circular and concentric with one another, wherein the first and second sealing members are concentric about a spray axis , and characterized in that upon connection of the liquid spray gun nozzle assembly to the compatible liquid spray gun body , a shaping air zone in the form of a closed ring is concentric with, and isolated between, the first and second sealing members . a coating liquid inlet portion comprising a liquid connector for connection to an external liquid source ; a coating liquid outlet portion comprising a liquid nozzle for spraying a coating liquid fed into the nozzle assembly through the coating liquid inlet portion , the liquid nozzle being disposed along a spray axis ; a coating liquid flow path fluidly connecting the coating liquid inlet portion to the liquid nozzle ; a spray gun connection portion opposite the coating liquid outlet portion adapted to connect the liquid spray gun nozzle assembly to a compatible liquid spray gun body , the spray gun connection portion comprising a nozzle assembly sealing surface adapted to seal the liquid spray gun nozzle assembly to the compatible liquid spray gun body , the nozzle assembly sealing surface comprising first and second sealing members that are each circular and concentric with one another, wherein the first and second sealing members are concentric about a spray axis , and characterized in that upon connection of the liquid spray gun nozzle assembly to the compatible liquid spray gun body , a shaping air zone in the form of a closed ring is concentric with, and isolated between, the first and second sealing members .
A driveshaft comprising an elongated monolithic composite tube with a front joint having a tube yoke and a rear joint at a distance from the front joint both are provided at corresponding opposite ends thereof an inner layer is comprising glass fibers which are coaxially wound on top of each other, wherein the inner layer of the composite tube is substantially composed of glass fiber; an outer layer of the composite tube is comprising carbon fiber which is coaxially wound directly on the inner layer wherein the outer layer of the composite tube is substantially composed of carbon fiber, and the ratio h1/h2 between the thickness of carbon fiber winding h1 and glass fiber winding h2 is bigger than 0,1 characterized in that the outer periphery of the composite tube is fully composed of the outer facing side of the outer layer and the ratio h1/h2 between the thickness of carbon fiber winding h1 and the thickness of glass fiber winding h2 is between 0,8-1,2.
A continuous cast slab material for high strength steel sheets, comprising a chemical composition containing, in mass%, C: 0.08 % or more and 0.30 % or less, Si: 2.0 % or less, Mn: more than 3.0 % and 10.0 % or less, P: 0.05 % or less, S: 0.01 % or less, Al: 1.5 % or less, Ti: 0.010 % or more and 0.300 % or less, and N: 0.0020 % or more and 0.0100 % or less in a range satisfying the following Expression , optionally further one or more selected from the group consisting of, in mass%, Cr: 1.0 % or less, Ni: 1.0 % or less, Mo: 1.0 % or less, Cu: 1.0 % or less, Nb: 0.1 % or less, V: 0.1 % or less, B: 0.0050 % or less, Ca: 1.0 % or less, REM: 1.0 % or less, Sn: 0.20 % or less, and Sb: 0.2 % or less, and the balance being Fe and incidental impurities, 1.1 ≤ Ti + Mn 1 / 2 / 400 / 0.01 + 5 N ≤ 6.0 where [Ti], [Mn], and [N] respectively denote contents of elements Ti, Mn, and N in mass%, wherein ΔMn according to the following Expression is 0.45 % or more, Δ Mn = Σ Mn max , i − Mn min , i / i where Mn max,i and Mn min,i are respectively a maximum concentration of a positive segregation area of Mn and a minimum concentration of a negative segregation area of Mn at adjacent measurement points in EPMA linear analysis with a beam diameter of 1 μm for any 10 mm interval in a transverse direction at a depth position of 1/4 of a thickness t from a surface of the material, and ΔMn is an average value of concentration differences of a total of i positive and negative segregation pairs in 10 mm intervals. where [Ti], [Mn], and [N] respectively denote contents of elements Ti, Mn, and N in mass%, wherein ΔMn according to the following Expression is 0.45 % or more,
Lifting device for loading and unloading of pallet goods onto and from a transport pallet, such as a standard pallet , for example a euro pallet, with a pallet support structure forming lateral access clearances for example for a lift truck, and a rest forming the upper side of the pallet on which the respective transport or pallet goods is to be deposited and which comprises a plurality of longitudinal panels, such as longitudinal boards , spaced apart from each other by forming at least two, preferably four, longitudinal gaps arranged parallel to each other, wherein the longitudinal gaps are open to the upper side of the pallet, the lifting device comprising a support frame, a tine assembly, which is liftably mounted on the support frame, of at least two, preferably four, tines extending parallel to each other for lifting and receiving the transport goods from the transport pallet and/or for depositing the transport goods on the transport pallet, wherein a tine spacing of two tines is adapted to a gap spacing of two longitudinal gaps and at least the at least two tines are adapted in shape to the at least two longitudinal gaps in such a way that they can be retracted in the longitudinal direction of the longitudinal gaps, wherein a height dimension for the at least two tines particularly at their transport goods carrying section is at most 25 mm or at most 22 mm, wherein a width dimension particularly at the transport goods carrying section is at most 40 mm or at most 30 mm, wherein the cross-section of the tines is substantially unchanged particularly along the transport goods carrying section.
Pump device with a pulsator as drive element for a main pump head which lies in a supply line and the working space of which is provided with a check valve on the suction side and a check valve on the pressure side, wherein the working space of the pulsator is connected to the working space of the main pump head via a pendulum line filled with supply medium , in such a way that the pulsator draws supply medium oscillatingly from the conveying line into the working space of the main pump head or presses it out of the working space , wherein a venting valve is provided for venting the working space of the pulsator, characterised in that the venting valve is a time-controlled valve and/or a pressure-controlled double-seat valve and in that a device is provided for introducing a liquid into the working space of the pulsator and/or the pendulum line .
An electronic device , comprising: an electronic component as a heat source ; and a heat conductive sheet , comprising: a folded section having at least two folds of the sheet establishing at least three superimposed layers of the sheet between the folds, wherein the folded section is configured to conduct heat from the heat source ; and a layer of sheet , other than that of the three superimposed layers, wherein the layer of sheet is configured to spread heat across the electronic device , and wherein the layer of sheet receives the heat from the folded section ; wherein the superimposed layers are closer to the heat source than the layer of sheet , and the folded section further includes a solid core , characterized in that , the sheet of the folded section is configured around the solid core . an electronic component as a heat source ; and a heat conductive sheet , comprising: a folded section having at least two folds of the sheet establishing at least three superimposed layers of the sheet between the folds, wherein the folded section is configured to conduct heat from the heat source ; and a layer of sheet , other than that of the three superimposed layers, wherein the layer of sheet is configured to spread heat across the electronic device , and wherein the layer of sheet receives the heat from the folded section ; wherein the superimposed layers are closer to the heat source than the layer of sheet , and the folded section further includes a solid core , characterized in that , the sheet of the folded section is configured around the solid core . a folded section having at least two folds of the sheet establishing at least three superimposed layers of the sheet between the folds, wherein the folded section is configured to conduct heat from the heat source ; and a layer of sheet , other than that of the three superimposed layers, wherein the layer of sheet is configured to spread heat across the electronic device , and wherein the layer of sheet receives the heat from the folded section ; wherein the superimposed layers are closer to the heat source than the layer of sheet , and the folded section further includes a solid core , characterized in that , the sheet of the folded section is configured around the solid core .
A method comprising providing a cellulosic biomass, wherein the cellulosic biomass has a moisture content less than 30%; associating the cellulosic biomass with a first organic liquid to form a first mixture, wherein the first organic liquid has a boiling temperature greater than 100°C; heating the mixture to a temperature at or above the boiling temperature of the first organic liquid to produce substantially dry cellulose nanofibrils; and processing the mixture to produce cellulose nanofibrils in a slurry, wherein said processing is or comprises one or more of grinding, refining, extruding, microfluidizing, homogenization, and combinations thereof. providing a cellulosic biomass, wherein the cellulosic biomass has a moisture content less than 30%; associating the cellulosic biomass with a first organic liquid to form a first mixture, wherein the first organic liquid has a boiling temperature greater than 100°C; heating the mixture to a temperature at or above the boiling temperature of the first organic liquid to produce substantially dry cellulose nanofibrils; and processing the mixture to produce cellulose nanofibrils in a slurry, wherein said processing is or comprises one or more of grinding, refining, extruding, microfluidizing, homogenization, and combinations thereof.