mhurhangee/patent-ind-claim-en huggingface dataset:
A power module , comprising: a power housing ; a circuit board , connected to the power housing and arranged with a plurality of pads on a surface of the circuit board facing the power housing ; an electronic component , arranged on the circuit board and comprising a plurality of pins; wherein the plurality of pins are soldered and connected to the plurality of pads; and a first sealant layer , arranged on the surface of the circuit board facing the power housing , and covering the plurality of pins and the plurality of pads; wherein the circuit board defines a plurality of through holes ; the plurality of pins pass through the plurality of through holes and are soldered to the plurality of pads; wherein the power module further comprises: a second sealant layer , covering a surface of the circuit board facing away from the power housing ; and a third sealant layer sandwiched between one of the plurality of pins and an inner wall of one of the plurality of through holes ; wherein the first sealant layer , the second sealant layer , and the third sealant layer are integrally formed. a power housing ; a circuit board , connected to the power housing and arranged with a plurality of pads on a surface of the circuit board facing the power housing ; an electronic component , arranged on the circuit board and comprising a plurality of pins; wherein the plurality of pins are soldered and connected to the plurality of pads; and a first sealant layer , arranged on the surface of the circuit board facing the power housing , and covering the plurality of pins and the plurality of pads; wherein the circuit board defines a plurality of through holes ; the plurality of pins pass through the plurality of through holes and are soldered to the plurality of pads; wherein the power module further comprises: a second sealant layer , covering a surface of the circuit board facing away from the power housing ; and a third sealant layer sandwiched between one of the plurality of pins and an inner wall of one of the plurality of through holes ; wherein the first sealant layer , the second sealant layer , and the third sealant layer are integrally formed. a second sealant layer , covering a surface of the circuit board facing away from the power housing ; and a third sealant layer sandwiched between one of the plurality of pins and an inner wall of one of the plurality of through holes ; wherein the first sealant layer , the second sealant layer , and the third sealant layer are integrally formed.
A window display device comprising: a transparent display screen provided in a transparent window glass pane of a vehicle ; an operating means adapted to detect an action for operating the display screen ; and a control means , which displays a shade on the display screen , wherein the shade is movable to selectively open and close the display screen based on an action performed on the operating means , the window display being characterized in that the display screen includes four sides, the shade is one of four shades that are provided to correspond to the four sides of the display screen , each shade has a shade section , the shading of which can be adjusted, and a colorless transparent section located about the shade section , and when the display screen is fully opened, the transparent section of each shade is located on a corresponding one of the four sides of the display screen . a transparent display screen provided in a transparent window glass pane of a vehicle ; an operating means adapted to detect an action for operating the display screen ; and a control means , which displays a shade on the display screen , wherein the shade is movable to selectively open and close the display screen based on an action performed on the operating means , the window display being characterized in that the display screen includes four sides, the shade is one of four shades that are provided to correspond to the four sides of the display screen , each shade has a shade section , the shading of which can be adjusted, and a colorless transparent section located about the shade section , and when the display screen is fully opened, the transparent section of each shade is located on a corresponding one of the four sides of the display screen .
Positioning device for holding a flat flexible part, especially a sheet , on a positioning surface , the positioning device comprising a body having a suction opening for aspiring the flat flexible part, wherein the suction opening is arranged within the positioning surface being an outer surface of the body , and a fluid port being in fluid communication with the suction opening , wherein the fluid port is arranged within a connection surface being an outer surface of the body , characterized by an abutment protrusion being arranged on the connection surface for abutting the positioning device against a base part to which it may be mounted and a sealing protrusion being arranged on the connection surface for compressing a gasket being interposed between the positioning device and the base part , wherein a height (H a ) of the abutment protrusion by which it protrudes from the connection surface is bigger than a height (H s ) of the sealing protrusion by which it protrudes from the connection surface . characterized by an abutment protrusion being arranged on the connection surface for abutting the positioning device against a base part to which it may be mounted and a sealing protrusion being arranged on the connection surface for compressing a gasket being interposed between the positioning device and the base part , wherein a height (H a ) of the abutment protrusion by which it protrudes from the connection surface is bigger than a height (H s ) of the sealing protrusion by which it protrudes from the connection surface .
A polymer composition comprising: silica as a filler (A); a polymer (B) having a repeating unit derived from a conjugated diene compound, having a peak temperature of a tanδ temperature dispersion curve of -110°C or more and less than -30°C, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group; and a polymer (C) having a repeating unit derived from a conjugated diene compound and a repeating unit derived from an aromatic vinyl compound, having a peak temperature of a tanδ temperature dispersion curve of -30°C or more and 10°C or less, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group, the polymer (B) and the polymer (C) being incompatible with each other, and a concentration of functional groups per unit mass of the polymer (B) being higher than a concentration of functional groups per unit mass of the polymer (C). silica as a filler (A); a polymer (B) having a repeating unit derived from a conjugated diene compound, having a peak temperature of a tanδ temperature dispersion curve of -110°C or more and less than -30°C, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group; and a polymer (C) having a repeating unit derived from a conjugated diene compound and a repeating unit derived from an aromatic vinyl compound, having a peak temperature of a tanδ temperature dispersion curve of -30°C or more and 10°C or less, and having at least one functional group selected from a group consisting of a nitrogen-containing functional group, a silicon-containing functional group, and an oxygen containing functional group, the polymer (B) and the polymer (C) being incompatible with each other, and a concentration of functional groups per unit mass of the polymer (B) being higher than a concentration of functional groups per unit mass of the polymer (C).
An anti-cancer drug for use in a method for killing or inhibiting the growth of cancer cells in a target region, the method comprising the simultaneous steps of treating the cancer cells with the anti-cancer drug and applying an electric field to the target region for a period of time while the cancer cells are being treated with the anti-cancer drug, wherein the electric field is configured to damage the cancer cells or inhibit growth of the cancer cells but leaving normal cells in the target region substantially unharmed, wherein the electric field is an AC electric field having a frequency between 100 kHz and 500 kHz and a field strength in the target region of at least 1 V/cm.
Brake actuator for a brake of a track-guided vehicle, in particular for a brake of a running gear of a rail vehicle, comprising an actuation apparatus and an interior , which has a first interior section and a second interior section , which is separated from the first interior section by means of the actuation apparatus , wherein the actuation apparatus comprises an actuation element to which pressure (p) can be applied in the first interior section and a force transmission element that is connected to the actuation element or embodied in one piece with the actuation element and is arranged in the second interior section , these being guided in the interior , wherein the force transmission element can be coupled to a brake link and an actuation force (F) can be transferred from the actuation element to the brake link via the force transmission element , characterised in that the force transmission element has a height that increases as the distance from the actuation element increases, wherein the force transmission element is coupled to the brake link via rollers that are connected to the brake link in a rotatable manner and are able to roll over the force transmission element .
A method for manufacturing a material consisting of fibers and shaped in a strip, by wet papermaking process, this material being multilayered and including a first layer of fibers and at least a second layer of fibers assembled together, method during which each layer of fibers is formed individually by draining on a forming fabric in a forming section , then conveyed in a strip towards an assembling section in which said layers are assembled to form the multilayer material , and then towards a pressing and drying section, characterized in that at least one longitudinal ribbon (R) of fibrous material is removed, using a pressurized fluid, between said forming and assembling sections, from only one of said layers so as to form therein a continuous longitudinal window (F), that two jets (J) of pressurized fluid which are positioned so as to delimit the opposite edges of said longitudinal window (F) are used for each longitudinal ribbon, and that said jets (J) are oriented in a convergent manner, namely that they are oriented towards the center of said longitudinal ribbon (R) to be withdrawn, so as to form with the plane in which said strip is contained an angle x° less than 90°, in particular comprised between 45° and 90°, preferably comprised between 45° and 85° and more preferably comprised between 50° and 75°.
A lithographic printing plate precursor comprising: an image recording layer on a support, wherein a hydrophobic area exists at at least a part of a surface of an outermost layer on a side where the image recording layer is provided, the hydrophobic area includes an acrylic resin not in a particle shape, acrylic resin particles, or styrene acrylic resin particles, wherein the hydrophobic area has a water contact angle at 25°C of 60° or greater, the volume average particle diameter of the acrylic resin particles or the styrene acrylic resin particles is preferably less than 0.2 μm, wherein the volume average particle diameter is measured by laser scattering, and an occupation area ratio of the hydrophobic area in the surface of the outermost layer is more than 20% by area and less than 100% by area, wherein the occupation area ratio is measured as described in the description. an image recording layer on a support, wherein a hydrophobic area exists at at least a part of a surface of an outermost layer on a side where the image recording layer is provided, the hydrophobic area includes an acrylic resin not in a particle shape, acrylic resin particles, or styrene acrylic resin particles, wherein the hydrophobic area has a water contact angle at 25°C of 60° or greater, the volume average particle diameter of the acrylic resin particles or the styrene acrylic resin particles is preferably less than 0.2 μm, wherein the volume average particle diameter is measured by laser scattering, and an occupation area ratio of the hydrophobic area in the surface of the outermost layer is more than 20% by area and less than 100% by area, wherein the occupation area ratio is measured as described in the description.
A medical device system for implantation in a hip joint for providing at least one artificial hip joint surface for a patient, the medical device system comprising: an artificial caput femur surface ; and an artificial acetabulum surface , the artificial acetabulum surface being at least partly bowl-shaped and comprising: a largest cross-sectional distance being variable such that the at least partly bowl-shaped artificial acetabulum surface can be inserted through a hole in the pelvic bone , from the abdominal side of the pelvic bone, the hole having a diameter smaller than said largest cross-sectional distance; and a functional opening adapted to be directed towards the artificial caput femur surface, when implanted in the patient, the functional opening having a size adapted to be variable such that it is smaller than a largest diameter of the artificial caput femur surface, when implanted, such that the artificial acetabulum clasps the artificial caput femur surface, characterized in that said artificial acetabulum surface comprises at least one slit enabling the artificial acetabulum surface to travel beyond the maximum diameter of the caput femur and/or pass through a hole smaller than said largest cross-sectional distance of the artificial acetabulum surface enabling a less invasive surgical procedure. an artificial caput femur surface ; and an artificial acetabulum surface , the artificial acetabulum surface being at least partly bowl-shaped and comprising: a largest cross-sectional distance being variable such that the at least partly bowl-shaped artificial acetabulum surface can be inserted through a hole in the pelvic bone , from the abdominal side of the pelvic bone, the hole having a diameter smaller than said largest cross-sectional distance; and a functional opening adapted to be directed towards the artificial caput femur surface, when implanted in the patient, the functional opening having a size adapted to be variable such that it is smaller than a largest diameter of the artificial caput femur surface, when implanted, such that the artificial acetabulum clasps the artificial caput femur surface, a largest cross-sectional distance being variable such that the at least partly bowl-shaped artificial acetabulum surface can be inserted through a hole in the pelvic bone , from the abdominal side of the pelvic bone, the hole having a diameter smaller than said largest cross-sectional distance; and a functional opening adapted to be directed towards the artificial caput femur surface, when implanted in the patient, the functional opening having a size adapted to be variable such that it is smaller than a largest diameter of the artificial caput femur surface, when implanted, such that the artificial acetabulum clasps the artificial caput femur surface,
A method for processing biological cell images, the method comprising: obtaining input data comprising a plurality of images of one or more biological cells, wherein each image is an image of the one or more biological cells illuminated with a respective optical microscopy technique chosen from a plurality of different optical microscopy techniques; processing the data using a stained cell neural network, wherein the stained cell neural network has been configured through training to receive the data comprising the plurality of images of the one or more biological cells and to process the data to perform fully convolutional image-to-image regression from the plurality of images to one or more stained cell images, wherein each stained cell image depicts a respective stained version of the one or more biological cells in the plurality of images and wherein each pixel in each of the one or more stained cell images corresponds to a pixel in the plurality of images of the one or more biological cells; and processing the one or more stained cell images generated by the stained cell neural network using a cell characteristic neural network, wherein the cell characteristic neural network has been configured through training to receive the one or more stained cell images and to process the one or more stained cell images to generate a cell characteristic output that characterizes features of the biological cells that are stained in the one or more stained cell images. obtaining input data comprising a plurality of images of one or more biological cells, wherein each image is an image of the one or more biological cells illuminated with a respective optical microscopy technique chosen from a plurality of different optical microscopy techniques; processing the data using a stained cell neural network, wherein the stained cell neural network has been configured through training to receive the data comprising the plurality of images of the one or more biological cells and to process the data to perform fully convolutional image-to-image regression from the plurality of images to one or more stained cell images, wherein each stained cell image depicts a respective stained version of the one or more biological cells in the plurality of images and wherein each pixel in each of the one or more stained cell images corresponds to a pixel in the plurality of images of the one or more biological cells; and processing the one or more stained cell images generated by the stained cell neural network using a cell characteristic neural network, wherein the cell characteristic neural network has been configured through training to receive the one or more stained cell images and to process the one or more stained cell images to generate a cell characteristic output that characterizes features of the biological cells that are stained in the one or more stained cell images.
A computer-implemented method for operating an autonomous driving vehicle (ADV), the method comprising: in response to receiving a raw reference line representing a route from a first location to a second location associated with an ADV, smoothing the raw reference line using a Quadratic programming (QP) spline smoothing method to generate a first smoothed reference line; characterised in that the method further comprises: identifying one or more segments on the smoothed reference line, wherein each of the identified reference line segments includes a curvature that exceeds a predetermined size; smoothing each of the segments using a spiral smoothing method, including optimizing the segments in view of a set of constraints using an objective function, such that an output of the objective function reaches a minimum value while the set of constraints are satisfied, to generate a second smoothed reference line; and planning a trajectory based on the second smoothed reference line to control the ADV. in response to receiving a raw reference line representing a route from a first location to a second location associated with an ADV, smoothing the raw reference line using a Quadratic programming (QP) spline smoothing method to generate a first smoothed reference line; characterised in that the method further comprises: identifying one or more segments on the smoothed reference line, wherein each of the identified reference line segments includes a curvature that exceeds a predetermined size; smoothing each of the segments using a spiral smoothing method, including optimizing the segments in view of a set of constraints using an objective function, such that an output of the objective function reaches a minimum value while the set of constraints are satisfied, to generate a second smoothed reference line; and planning a trajectory based on the second smoothed reference line to control the ADV. identifying one or more segments on the smoothed reference line, wherein each of the identified reference line segments includes a curvature that exceeds a predetermined size; smoothing each of the segments using a spiral smoothing method, including optimizing the segments in view of a set of constraints using an objective function, such that an output of the objective function reaches a minimum value while the set of constraints are satisfied, to generate a second smoothed reference line; and planning a trajectory based on the second smoothed reference line to control the ADV.
Method for improving the storability and long-term viability of seeds, comprising storing seeds in a closed container for a period of at least 6 month; in the presence of an oxygen absorber, characterized in that the oxygen absorber is selected so as to not affect the moisture content inside the container.
A method for controlling a reactive current injection in a wind power plant , comprising a plurality of wind turbine generators , during a grid fault during which the wind power plant operates in a fault ride-through mode, characterised in that the method comprises: obtaining , at a point of common coupling between the grid and the wind power plant , a reactive current output of the wind power plant to be provided to the grid during the grid fault; determining a difference between a given reactive current contribution required from the wind power plant and the obtained reactive current output of the wind power plant ; and controlling the plurality of wind turbine generators in the wind power plant to generate additional reactive current according to a reactive current reference generated based on the difference. obtaining , at a point of common coupling between the grid and the wind power plant , a reactive current output of the wind power plant to be provided to the grid during the grid fault; determining a difference between a given reactive current contribution required from the wind power plant and the obtained reactive current output of the wind power plant ; and controlling the plurality of wind turbine generators in the wind power plant to generate additional reactive current according to a reactive current reference generated based on the difference.
A composition for use in a treatment of a condition of radiation exposure or for use in a radio-protection and/or radiomitigation treatment, wherein the composition is obtainable by a method of preparing an annatto seed extract having a δ-tocotrienol to γ-tocotrienol ratio of between 2:1 to 10:1, the method comprising: a. Extracting the oil from the annatto seeds to produce annatto seed oil, wherein the oil is optionally hexane-extracted from the annatto seeds; and b. Enriching the tocotrienols from the annatto seed oil via chromatography, wherein the tocotrienols are separated by chromatography using a hexane: ethyl acetate solvent or a hexane: isopropanol solvent. a. Extracting the oil from the annatto seeds to produce annatto seed oil, wherein the oil is optionally hexane-extracted from the annatto seeds; and b. Enriching the tocotrienols from the annatto seed oil via chromatography, wherein the tocotrienols are separated by chromatography using a hexane: ethyl acetate solvent or a hexane: isopropanol solvent.