mhurhangee/patent-ind-claim-en huggingface dataset:
A method of monitoring a wind turbine having an electrical component , the method comprising: obtaining a first exterior temperature associated with the electrical component; obtaining a power loss of the electrical component at current operating variables; executing a first thermal model describing the electrical component to determine at least one internal temperature of the electrical component, the first thermal model being executed based on the obtained first exterior temperature and the obtained power loss; characterized in that obtaining a second exterior temperature associated with the electrical component; and, executing a second thermal model describing the electrical component to predict a future thermal condition of the electrical component to monitor operation of the wind turbine, the second thermal model being executed based on the determined at least one internal temperature and the obtained second exterior temperature. obtaining a first exterior temperature associated with the electrical component; obtaining a power loss of the electrical component at current operating variables; executing a first thermal model describing the electrical component to determine at least one internal temperature of the electrical component, the first thermal model being executed based on the obtained first exterior temperature and the obtained power loss; characterized in that obtaining a second exterior temperature associated with the electrical component; and, executing a second thermal model describing the electrical component to predict a future thermal condition of the electrical component to monitor operation of the wind turbine, the second thermal model being executed based on the determined at least one internal temperature and the obtained second exterior temperature.
A composition comprising: a quaternary ammonium compound; a first surfactant, comprising a quaternary phospholipid; a second surfactant, comprising an amphoteric surfactant; and a quaternary polymer, wherein the quaternary ammonium compound is benzethonium chloride; the quaternary phospholipid is cocamidopropyl PG-dimonium chloride phosphate; the amphoteric surfactant is lauryl dimethylamine oxide; and the quaternary polymer is hydroxypropyl guar hydroxypropyltrimonium chloride, the composition further comprising PEG-7 glyceryl cocoate and glycereth-18 ethylhexanoate. a quaternary ammonium compound; a first surfactant, comprising a quaternary phospholipid; a second surfactant, comprising an amphoteric surfactant; and a quaternary polymer, wherein the quaternary ammonium compound is benzethonium chloride; the quaternary phospholipid is cocamidopropyl PG-dimonium chloride phosphate; the amphoteric surfactant is lauryl dimethylamine oxide; and the quaternary polymer is hydroxypropyl guar hydroxypropyltrimonium chloride, the composition further comprising PEG-7 glyceryl cocoate and glycereth-18 ethylhexanoate.
A computer-implemented method for automatic shape quantification of an optic nerve head from three-dimensional image data acquired with optical coherence tomography, comprising the steps of: a) Providing three-dimensional image data of the retina, the image data comprising at least a portion of the optic nerve head, wherein the image data comprises pixels with associated pixel values; b) In the three-dimensional image data identifying anatomic portions of the optic nerve head, the anatomic portions comprising a retinal pigment epithelium, RPE, portion and an inner limiting membrane Z , ILM, portion ; c) Determining an RPE polygon mesh for a lower boundary of the retinal pigment epithelium portion , wherein the RPE polygon mesh extends along the lower boundary of the retinal pigment epithelium portion ; d) Determining an ILM polygon mesh for the inner limiting membrane portion , wherein the ILM polygon mesh extends along the inner limiting membrane portion , wherein the RPE polygon mesh and the ILM polygon mesh each comprise vertices and faces , wherein for each face of the ILM polygon mesh a corresponding vertex of the RPE polygon mesh is determined , such that a correspondence between the ILM polygon mesh and RPE polygon mesh is determined; e) Determining a morphologic parameter of the optic nerve head from the RPE polygon mesh and the ILM polygon mesh ; f) Displaying the morphologic parameter of the optic nerve head and/or a representation of at least a portion of the RPE polygon mesh and/or a representation of at least a portion of the ILM polygon mesh . a) Providing three-dimensional image data of the retina, the image data comprising at least a portion of the optic nerve head, wherein the image data comprises pixels with associated pixel values; b) In the three-dimensional image data identifying anatomic portions of the optic nerve head, the anatomic portions comprising a retinal pigment epithelium, RPE, portion and an inner limiting membrane Z , ILM, portion ; c) Determining an RPE polygon mesh for a lower boundary of the retinal pigment epithelium portion , wherein the RPE polygon mesh extends along the lower boundary of the retinal pigment epithelium portion ; d) Determining an ILM polygon mesh for the inner limiting membrane portion , wherein the ILM polygon mesh extends along the inner limiting membrane portion , wherein the RPE polygon mesh and the ILM polygon mesh each comprise vertices and faces , wherein for each face of the ILM polygon mesh a corresponding vertex of the RPE polygon mesh is determined , such that a correspondence between the ILM polygon mesh and RPE polygon mesh is determined; e) Determining a morphologic parameter of the optic nerve head from the RPE polygon mesh and the ILM polygon mesh ; f) Displaying the morphologic parameter of the optic nerve head and/or a representation of at least a portion of the RPE polygon mesh and/or a representation of at least a portion of the ILM polygon mesh .
An electric oven with steam for food, for cooking food of the pizza type and the like, comprising an oven body and a base possibly provided with wheels , the oven body comprising a cooking chamber provided with an oven mouth closed by an openable door , the cooking chamber comprising a floor or bedplate of the oven and a cooking vault or roof opposite to said floor of the oven and with said floor and cooking vault respectively housing floor resistors and vault resistors required for heating the cooking chamber of the oven, said oven characterised in that it comprises means for generating wet steam inside the cooking chamber cooperating with means for adjusting thermal parameters of the water managed by the steam generation means and means for detecting operating parameters of the steam generation means, of the detection means and of the oven cooperating in an adaptive process logic with a central processing unit comprising a control unit for quantifying the steam to be introduced into the cooking chamber , said means for adjusting the thermal parameters comprising a preheating device stabilised to a steamer for preheating the water coming from a mains water supply prior to it flowing into the steamer and comprising a pair of heaters defined by a first heater and by a second heater arranged in series, the first heater being functional to obtain a first thermal gradient (Δthermal1) for the cold water coming from the mains water supply and the second heater being functional to obtain a second thermal gradient (Δthermal2) for the water flowing out from the first heater and flowing into said second heater, with the first thermal gradient being greater than the second thermal gradient((Δthermal1)>(Δthermal2)).
A mapping method comprising (a) operating at least one mobile robot comprising at least two cameras and at least one processing component, wherein the at least one mobile robot is wheeled and adapted to move in unstructured areas; and (b) taking visual images with the at least two cameras; and (c) extracting at least lines from the visual images; (d) generating map data using at least the extracted lines from the visual images; wherein step (d) comprises using an iterative algorithm to at least associate the extracted lines with physical objects; wherein the iterative algorithm comprises at least combining lines belonging to the same physical object from images taken by different cameras. (a) operating at least one mobile robot comprising at least two cameras and at least one processing component, wherein the at least one mobile robot is wheeled and adapted to move in unstructured areas; and (b) taking visual images with the at least two cameras; and (c) extracting at least lines from the visual images; (d) generating map data using at least the extracted lines from the visual images; wherein step (d) comprises using an iterative algorithm to at least associate the extracted lines with physical objects; wherein the iterative algorithm comprises at least combining lines belonging to the same physical object from images taken by different cameras.
Apparatus for measuring a wavelength-dependent optical characteristic of an optical system , comprising: a) a light-pattern generation device configured to generate a pattern of polychromatic light in an object plane , b) a spatially resolving light sensor , c) a measuring optical unit (33, 36, 38; 33') configured, together with the optical system , to image the object plane on the light sensor , characterized in that a dispersive optical element is arranged in a light path between the optical system and the light sensor in such a way that a plurality of images (30a' to 30e') of the pattern with different wavelengths are generated simultaneously at different locations on the light sensor , and in that the apparatus has an evaluation device configured to determine the wavelength-dependent characteristic of the optical system from the plurality of images. a) a light-pattern generation device configured to generate a pattern of polychromatic light in an object plane , b) a spatially resolving light sensor , c) a measuring optical unit (33, 36, 38; 33') configured, together with the optical system , to image the object plane on the light sensor ,
Housing part that is injection-molded from a plastic material reinforced with fibers for an electrical connector , wherein said housing part comprises a base section with two oppositely disposed flat sides , wherein a housing section extends away from each flat side , wherein a main fiber orientation in said housing sections , which corresponds to a mean value of the orientation of said fibers in said respective housing section , is respectively oriented away from said base section , characterized in that a housing section forms at least one mating face of said housing part , wherein the housing section opposite the at least one mating face comprises at least one rib , and wherein said at least one rib , in a rib cross section parallel to said flat sides of said base section , comprises at least one convex region and at least one concave region .
A negative electrode for a lithium secondary battery, comprising: a current collector; and a negative electrode active material layer including a first layer formed on both sides of the current collector and comprising a first carbon-based negative electrode active material, and a second layer formed on the first layer and comprising a second carbon-based negative electrode active material, a DD (Degree of Divergence) value of the first layer is 30 % to 90 % of a DD value of the negative electrode active material layer and, the DD value is defined by Equation 1: DD Degree of Divergence = I a / I total * 100 In Equation 1, I a is a sum of peak intensities at 2θ = 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, and I total is a sum of peak intensities at 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, wherein the peak intensities are a peak integral area value, and the first or the second carbon-based negative electrode active material is artificial graphite or a mixture of artificial graphite and natural graphite. a current collector; and a negative electrode active material layer including a first layer formed on both sides of the current collector and comprising a first carbon-based negative electrode active material, and a second layer formed on the first layer and comprising a second carbon-based negative electrode active material, a DD (Degree of Divergence) value of the first layer is 30 % to 90 % of a DD value of the negative electrode active material layer and, the DD value is defined by Equation 1: DD Degree of Divergence = I a / I total * 100 In Equation 1, I a is a sum of peak intensities at 2θ = 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, and I total is a sum of peak intensities at 2θ=26.5±0.2°, 42.4±0.2°, 43.4±0.2°, 44.6±0.2°, 54.7±0.2°, and 77.5±0.2° measured by XRD using a CuKα ray, wherein the peak intensities are a peak integral area value, and the first or the second carbon-based negative electrode active material is artificial graphite or a mixture of artificial graphite and natural graphite.
Electrical panel comprising: - a plurality of removable trays , each having an electrical device and allowing the electrical device to be connected to the electrical panel or to be withdrawn therefrom, - a plurality of receivers , each adapted to receive a removable tray in order to connect the electrical device carried by that tray to the electrical panel, - a plurality of communication interfaces each situated in the region of a receiver , - a data bus connected to each communication interface , each communication interface having: - a data connector which is configured to be connected to a corresponding data connector of the electrical device of the removable tray when the removable tray is received in the panel, - a switching device which is selectively and reversibly switchable between: • a connected state, in which it connects the data bus to the data connector , and • a disconnected state, in which it isolates the data bus from the data connector while ensuring the continuity of the data bus, the electrical panel being characterised in that the communication interface comprises a housing in which the switching device and the data connector are integrated. - a plurality of removable trays , each having an electrical device and allowing the electrical device to be connected to the electrical panel or to be withdrawn therefrom, - a plurality of receivers , each adapted to receive a removable tray in order to connect the electrical device carried by that tray to the electrical panel, - a plurality of communication interfaces each situated in the region of a receiver , - a data bus connected to each communication interface , each communication interface having: - a data connector which is configured to be connected to a corresponding data connector of the electrical device of the removable tray when the removable tray is received in the panel, - a switching device which is selectively and reversibly switchable between: • a connected state, in which it connects the data bus to the data connector , and • a disconnected state, in which it isolates the data bus from the data connector while ensuring the continuity of the data bus, • a connected state, in which it connects the data bus to the data connector , and • a disconnected state, in which it isolates the data bus from the data connector while ensuring the continuity of the data bus,
A runway lighting apparatus , comprising: a top portion , including a plurality of light emitting elements , a plurality of lateral protrusions , and a tool receiver on an exterior surface of the top portion ; and a base portion including a plurality of surfaces defining a plurality of slots , wherein each slot is configured to receive one of the plurality of lateral protrusions to secure the top portion to the base portion , wherein each slot includes a vertical portion and a horizontal portion, and wherein a distance of the horizontal portion of each respective slot corresponds to a rotation of the top portion between 25 degrees and 45 degrees to secure the top portion to the base portion . a top portion , including a plurality of light emitting elements , a plurality of lateral protrusions , and a tool receiver on an exterior surface of the top portion ; and a base portion including a plurality of surfaces defining a plurality of slots , wherein each slot is configured to receive one of the plurality of lateral protrusions to secure the top portion to the base portion , wherein each slot includes a vertical portion and a horizontal portion, and wherein a distance of the horizontal portion of each respective slot corresponds to a rotation of the top portion between 25 degrees and 45 degrees to secure the top portion to the base portion .
A pyrroloquinoline quinone trilithium salt crystal, characterized by an X-ray powder diffraction pattern with significant peaks at diffraction angles (2θ values) of 6.222 ± 0.2°, 7.379 ± 0.2°, 7.941 ± 0.2°, 23.631 ± 0.2°; endothermic peak of the pyrroloquinoline quinone trilithium salt crystal is around 90-96°C in the differential scanning calorimetry thermogram; and the pyrroloquinoline quinone trilithium salt crystal shows peaks around 3396.03 cm -1 , 1652.70 cm -1 , 1604.48 cm -1 , 1355.71 cm -1 on infrared spectroscopy (IR) pattern.
A vehicle for transporting goods, including an electronic braking system and data logging apparatus , said data logging apparatus including a processing device , memory means , an independent power source , and a clock ; wherein the electronic braking system includes at least one sensor that produces an output signal that is indicative of the weight of goods stored in the vehicle and an electronic control unit that is arranged to determine the braking load applied to the wheels, said braking load being determined at least in part from signals received from the sensor , characterised in that the processing device is arranged to communicate with the electronic braking system and, in use, the processing device is arranged to check the power status of the electronic braking system , to automatically power up at least the part of the electronic braking system that is required in order for the processing device to obtain the sensor data that is indicative of the weight of goods in the vehicle using the independent power source when it determines that the electronic braking system is in an unpowered condition, to obtain sensor data that is indicative of the weight of goods stored in the vehicle from the electronic braking system , to obtain the time and/or date of receipt of the data from the clock , to store the sensor data in the memory means , and to store the time and/or date in the memory means .
A memristor device comprising: - a first electrode ; - a second electrode ; - a cathode metal layer disposed on a surface of the first electrode ; and - an active region disposed between and in electrical contact with the second electrode and the cathode metal layer , the active region comprising at least one layer of an amorphous metal oxide ; wherein the memristor device is designed such that the active region exhibits a resistive switching behaviour when a switching voltage is applied between the first and second electrodes , and the at least one layer of amorphous metal oxide includes an oxygen deficient amorphous metal oxide; characterized in that the oxygen deficient amorphous metal oxide includes a strontium titanate expressed by a formula amorphous-SrTiO 3-x , wherein 0.05 < x < 0.15. - a first electrode ; - a second electrode ; - a cathode metal layer disposed on a surface of the first electrode ; and - an active region disposed between and in electrical contact with the second electrode and the cathode metal layer , the active region comprising at least one layer of an amorphous metal oxide ;
A forage harvester for chopping harvested material , comprising: - at least one conditioning unit for conditioning chopped harvested material , as well as - at least two track roller units disposed on opposing ends of a front axle of the forage harvester . wherein the harvested material can be at least partially crushed by means of the conditioning unit , wherein each of the track roller units has two main wheels which are one behind the other in the longitudinal direction of the forage harvester and opposite each other, at least one auxiliary wheel disposed between the main wheels , as well as at least one endless belt which encompasses the main wheels , characterized in that starting from an active position in which it is operatively connected to the rest of the working units of the forage harvester , the conditioning unit can be transferred into a passive position in which the conditioning unit is out of operative connection, wherein, starting from its passive position, the conditioning unit can be removed from the rest of the forage harvester , and a free cross section is located on a removal side of the forage harvester through which, starting from its passive position, the conditioning unit can be moved out of the rest of the forage harvester laterally of the forage harvester as well as over the track roller unit associated with the removal side . - at least one conditioning unit for conditioning chopped harvested material , as well as - at least two track roller units disposed on opposing ends of a front axle of the forage harvester .
A minimally invasive tissue harvesting device for harvesting soft tissue from a donor site, comprising: - a rotary cutting tool , - a collection container including a central bore extending in a longitudinal direction and with a distal opening , wherein the cutting tool is arranged in the central bore of the collection container and adapted to pass through the distal opening and draw harvested soft tissue fragments (3; 5) into the collection container, and - a housing accommodating the cutting tool and the collection container, wherein the collection container is axially movable with respect to the housing, characterised in that the device is a handpiece which may be used with one hand, and which comprises an electrical motor supported by a battery to drive the rotary movement of the cutting tool, and that the diameter of the cutting tool is between 0.5 mm and 5 mm so as to minimize damage caused to the donor site. - a rotary cutting tool , - a collection container including a central bore extending in a longitudinal direction and with a distal opening , wherein the cutting tool is arranged in the central bore of the collection container and adapted to pass through the distal opening and draw harvested soft tissue fragments (3; 5) into the collection container, and - a housing accommodating the cutting tool and the collection container, wherein the collection container is axially movable with respect to the housing, characterised in that the device is a handpiece which may be used with one hand, and which comprises an electrical motor supported by a battery to drive the rotary movement of the cutting tool, and that the diameter of the cutting tool is between 0.5 mm and 5 mm so as to minimize damage caused to the donor site.
Acoustic impedance matching device intended to be implanted behind a loudspeaker , said device comprising an end of small section, intended to be connected to an opening of a loudspeaker , and an opposite end , said device comprising a chamber at least partially filled with an absorbent material , characterized in that : - the cross-section of the chamber increases between the end of small section and the opposite end ; - the density of the absorbent material increases between the end of small section and the opposite end . - the cross-section of the chamber increases between the end of small section and the opposite end ; - the density of the absorbent material increases between the end of small section and the opposite end .