mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a torsion box for a structure of an aircraft , comprising the steps: - Providing a first component from a Fiber composite material, the first component having a first flat base with a first inside and a first outside , with a plurality of first stiffening elements being arranged on the first inside and an association with the form the first base , - Providing a second component made of a fiber composite material, the second component having a second flat base with a second inside and a second outside , wherein a plurality of second stiffening elements at the second inside can be arranged and a composite with the form a second base , - Placing the first component and the second component on top of each other in such a way that the first stiffening elements lie at least partially on the second inside and the second stiffening elements at least partially on the first Lay inside , Characterized by - Connecting the first stiffening elements to the second base and connecting the second stiffening elements to the first base . - Providing a first component from a Fiber composite material, the first component having a first flat base with a first inside and a first outside , with a plurality of first stiffening elements being arranged on the first inside and an association with the form the first base , - Providing a second component made of a fiber composite material, the second component having a second flat base with a second inside and a second outside , wherein a plurality of second stiffening elements at the second inside can be arranged and a composite with the form a second base , - Placing the first component and the second component on top of each other in such a way that the first stiffening elements lie at least partially on the second inside and the second stiffening elements at least partially on the first Lay inside , Characterized by - Connecting the first stiffening elements to the second base and connecting the second stiffening elements to the first base .
Graphene/positive electrode active material composite particles, comprising a composite of a positive electrode active material for a lithium ion secondary battery with graphene, wherein the positive electrode active material for a lithium ion secondary battery contains at least lithium and nickel, wherein the positive electrode active material for a lithium ion secondary battery is treated with a silane coupling agent, having a percentage of abundance of silicon composing a siloxane bond in total elements of 0.4 atomic% or more as measured by X-ray photoelectron spectroscopy, determined as described herein.
A system for preventing access to a prohibited function on a mobile device when the mobile device is in a vehicle , the mobile device having an operating system (OS) installed thereon, comprising: a control device installed within the vehicle, the control device being a standalone hardware device that is external to and separate from the mobile device; a software application installed and running in memory resident on the mobile device; wherein the software application causes the mobile device to signal the control device if an unauthorised application is opened; wherein, in response to receipt of the signal from the mobile device, the control device transmits a command to the mobile device, wherein the command emulates a key press received on a remote keyboard; and wherein the key press has the effect of restricting usage of the unauthorised application. a control device installed within the vehicle, the control device being a standalone hardware device that is external to and separate from the mobile device; a software application installed and running in memory resident on the mobile device; wherein the software application causes the mobile device to signal the control device if an unauthorised application is opened; wherein, in response to receipt of the signal from the mobile device, the control device transmits a command to the mobile device, wherein the command emulates a key press received on a remote keyboard; and wherein the key press has the effect of restricting usage of the unauthorised application.
An electricity generator comprising; a pressure chamber having a releasably sealable air vent (13(b)); a liquid supply; a sump tank configured to deliver liquid to the pressure chamber; a turbine ; a piping network including an upright liquid conduit , the upright liquid conduit configured to deliver liquid from the pressure chamber through the turbine and back to the sump tank, the upright liquid conduit comprising a flow line (11(a)) for delivery of liquid from the pressure chamber up to a head height and a return line (11(b)) for delivery of liquid back down under gravity from the head height through the turbine to the sump tank; a pressurized gas supply operable to pressurize gas in the pressure chamber, the pressurized gas supply comprises a feed line being fed from the blow-off or idle-time air from an existing manufacturing line; a plurality of valves (13(a), 13(c), 13(d), 13(e)); and a controller to operate the plurality of valves. a pressure chamber having a releasably sealable air vent (13(b)); a liquid supply; a sump tank configured to deliver liquid to the pressure chamber; a turbine ; a piping network including an upright liquid conduit , the upright liquid conduit configured to deliver liquid from the pressure chamber through the turbine and back to the sump tank, the upright liquid conduit comprising a flow line (11(a)) for delivery of liquid from the pressure chamber up to a head height and a return line (11(b)) for delivery of liquid back down under gravity from the head height through the turbine to the sump tank; a pressurized gas supply operable to pressurize gas in the pressure chamber, the pressurized gas supply comprises a feed line being fed from the blow-off or idle-time air from an existing manufacturing line; a plurality of valves (13(a), 13(c), 13(d), 13(e)); and a controller to operate the plurality of valves.
A method of removing, by an imaging processing device , remanence artifacts from an image (f n ) of a sequence of images captured by an infrared imaging device, the method comprising: - inpainting a zone of remanence (K) in the image (f n ) to generate an inpainted image; - generating a remanence measure (ω* n,x ) for at least some pixels in the image (f n ) based on the inpainted image; and - removing remanence artifacts from at least some pixels of the image (f n ) based on a remanence estimation (μ ω,n,x ) for each of the at least some pixels, each remanence estimation (μ ω,n,x ) being generated based on the remanence measures (ω* n,x ) of a plurality of the images in the sequence. - inpainting a zone of remanence (K) in the image (f n ) to generate an inpainted image; - generating a remanence measure (ω* n,x ) for at least some pixels in the image (f n ) based on the inpainted image; and - removing remanence artifacts from at least some pixels of the image (f n ) based on a remanence estimation (μ ω,n,x ) for each of the at least some pixels, each remanence estimation (μ ω,n,x ) being generated based on the remanence measures (ω* n,x ) of a plurality of the images in the sequence.
Method for producing (sub)microstructures on curved surfaces of an optical component, characterized by the following method steps: - a- providing an elastic carrier foil with a reinforcing foil detachable from the carrier foil ; - b- providing a model object having a (sub)microstructure ; - c- applying an impression film to the front side of the carrier foil facing away from the reinforcing foil ; - d- molding the (sub-)microstructure of the model object onto the front side of the carrier foil coated with the impression film , forming a structured impression film ; - e- clamping the carrier foil coated with the structured impression film together with the reinforcing foil in a holding frame ; - f- applying a curable transfer film to the front side of the carrier foil coated with the structured impression film ; - g- peeling off the reinforcing foil from the back side of the carrier foil ; - h- pressing at least a surface portion of an optical workpiece to be structured onto the structured impression film coated with the transfer film on the front side of the carrier foil to form a structured transfer film ; - i- curing the structured transfer film adhering to the at least one surface portion of the optical workpiece to form an optical component structured with (sub)microstructures ; - j- removing the structured optical component from the structured transfer film remaining on the carrier foil . - a- providing an elastic carrier foil with a reinforcing foil detachable from the carrier foil ; - b- providing a model object having a (sub)microstructure ; - c- applying an impression film to the front side of the carrier foil facing away from the reinforcing foil ; - d- molding the (sub-)microstructure of the model object onto the front side of the carrier foil coated with the impression film , forming a structured impression film ; - e- clamping the carrier foil coated with the structured impression film together with the reinforcing foil in a holding frame ; - f- applying a curable transfer film to the front side of the carrier foil coated with the structured impression film ; - g- peeling off the reinforcing foil from the back side of the carrier foil ; - h- pressing at least a surface portion of an optical workpiece to be structured onto the structured impression film coated with the transfer film on the front side of the carrier foil to form a structured transfer film ; - i- curing the structured transfer film adhering to the at least one surface portion of the optical workpiece to form an optical component structured with (sub)microstructures ; - j- removing the structured optical component from the structured transfer film remaining on the carrier foil .
A device for the linear corrective transport of ribbon-shaped substrates with a receiving device for receiving at least one ribbon-shaped substrate and with a first driving means (105"') and a second driving means , wherein, for the transport of the ribbon-shaped substrate in x-direction, the first and second driving means (105, 105"') are designed to cooperate in such a manner that the first driving means (105"') can become effective by engaging in the region of the one edge of the ribbon-shaped substrate and the second driving means can become effective by engaging in the region of the other edge of the ribbon-shaped substrate, wherein the two driving means (105, 105"') can be controlled in such a way that they can drive the edge area of the ribbon-shaped substrate assigned to each driving means at adjustably different drive speeds, wherein at least the first driving means (105"') is arranged in the device via a first displacement device allowing for a guided displacement essentially limited to the y-direction of the first driving means (105"'), relative to the receiving device , characterized in that the device comprises four driving means (105, 105', 105", 105"') each of which can be controlled in such a way that they can drive ribbon-shaped substrates in x-direction, each at adjustably different speeds, and the four driving means (105, 105', 105", 105"') are each individually height-adjustable in z-direction and the four driving means (105, 105', 105", 105'") form two drive modules each having two driving means (105 & 105', 105" & 105"') at a fixed distance D from each other, with respect to the y-direction, wherein one of the two drive modules is arranged on the first displacement device so that for large format ribbon-shaped substrates its position can be chosen in such a manner that one driving means of the one drive module forms the first driving means and one driving means (105"') of the second drive module forms the second driving means, whereas for small format ribbon-shaped substrates one driving means (105") of the drive module forms the first driving means on the first displacement device and the other driving means (105"') of said drive module forms the second driving means on the first displacement device .
A holographic projector arranged to project a target image, the holographic projector comprising: a display device arranged to display holograms; an image processing engine arranged to generate a plurality of secondary images by sampling a primary image derived from the target image; a hologram engine arranged to determine a hologram corresponding to each secondary image to form a plurality of holograms; a display engine arranged to display each hologram on the display device, and a light source arranged to Illuminate each hologram during display to form a holographic reconstruction corresponding to each secondary image on a replay plane, wherein each secondary image comprises a plurality of pixels calculated from corresponding groups of pixels of the primary image at a plurality of positions of a sampling window; and wherein each pixel value of each secondary image is calculated from the pixel values of a corresponding group comprising a plurality of pixels of the primary image that fall within the sampling window at a respective one of the plurality of sampling window positions. a display device arranged to display holograms; an image processing engine arranged to generate a plurality of secondary images by sampling a primary image derived from the target image; a hologram engine arranged to determine a hologram corresponding to each secondary image to form a plurality of holograms; a display engine arranged to display each hologram on the display device, and a light source arranged to Illuminate each hologram during display to form a holographic reconstruction corresponding to each secondary image on a replay plane, wherein each secondary image comprises a plurality of pixels calculated from corresponding groups of pixels of the primary image at a plurality of positions of a sampling window; and wherein each pixel value of each secondary image is calculated from the pixel values of a corresponding group comprising a plurality of pixels of the primary image that fall within the sampling window at a respective one of the plurality of sampling window positions.
A method for generating oxygen comprising providing at least one oxygen source, providing at least one ionic liquid, providing at least one metal oxide compound, wherein - the oxygen source is a peroxide compound, - the ionic liquid is in the liquid state at least in the temperature range from -10°C to +50°C, and - the metal oxide compound is an oxide of one single metal or of two or more different metals, said metal(s) being selected from the metals of groups 2 to 14 of the periodic table of the elements, and contacting the oxygen source, the ionic liquid, and the metal oxide compound. - the oxygen source is a peroxide compound, - the ionic liquid is in the liquid state at least in the temperature range from -10°C to +50°C, and - the metal oxide compound is an oxide of one single metal or of two or more different metals, said metal(s) being selected from the metals of groups 2 to 14 of the periodic table of the elements, and
A toner case comprising: a case body ; a lever supported rotatably by the case body ;and a case-side shutter , wherein a guide portion is provided in the case-side shutter , along a rotational direction (Y2) of the case-side shutter ; and a projection portion that is engageable with the guide portion is provided in the case body , characterized in that a cylindrical discharge duct having a discharge port is provided to project rightward at a lower end part of a right side of the case body ; the lever includes a lever-side gear ; and the case-side shutter including a shutter-side gear which is engageable with the lever-side gear is configured to be cylindrical and rotatable around a periphery of the discharge duct , such that the case-side shutter performs opening and closing of the discharge port . a case body ; a lever supported rotatably by the case body ;and a case-side shutter , wherein a guide portion is provided in the case-side shutter , along a rotational direction (Y2) of the case-side shutter ; and a projection portion that is engageable with the guide portion is provided in the case body , characterized in that a cylindrical discharge duct having a discharge port is provided to project rightward at a lower end part of a right side of the case body ; the lever includes a lever-side gear ; and the case-side shutter including a shutter-side gear which is engageable with the lever-side gear is configured to be cylindrical and rotatable around a periphery of the discharge duct , such that the case-side shutter performs opening and closing of the discharge port .
A method of applying a bone attachment coating to a prosthetic component , the bone attachment coating being formed from a plurality of particles applied to a surface of the prosthetic component, characterised in that the method comprises: exciting the plurality of particles with an ultrasonic exciter so as to increase the vibrational energy of the particles without significantly heating the prosthetic component; wherein the vibrational energy of the particles causes localised heating of the prosthetic component such that the particles may be embedded into a bone facing region of the prosthetic component. exciting the plurality of particles with an ultrasonic exciter so as to increase the vibrational energy of the particles without significantly heating the prosthetic component; wherein the vibrational energy of the particles causes localised heating of the prosthetic component such that the particles may be embedded into a bone facing region of the prosthetic component.
A kit for manufacturing a wind turbine blade component, comprising: - a first panel section comprising at least one core element of a core material, the first panel section having a first side surface , an opposite second side surface , a first edge surface and an opposite second edge surface , - at least a second panel section comprising at least one core element of a core material, the second panel section further having a first side surface , an opposite second side surface , a first edge surface and an opposite second edge surface , - at least one interlocking device configured to interlock the first and second panel sections relative to each other, the at least interlocking device has a first end , an opposite second end , a third side surface and an opposite fourth side surface , - wherein at least the first panel section has at least one first recess arranged in at least its first or second edge surface , the at least one first recess is shaped to receive said first end of the at least one interlocking device , wherein the at least one interlocking device and at least the first panel section have the same thickness so that, when interlocked, said third and fourth side surfaces are substantially flushed with said first and second side surfaces , and a first gap is formed between an inner edge surface of the at least one first recess and an outer edge surface of the first end of the at least one interlocking device , wherein said first gap has a predetermined maximum width. - a first panel section comprising at least one core element of a core material, the first panel section having a first side surface , an opposite second side surface , a first edge surface and an opposite second edge surface , - at least a second panel section comprising at least one core element of a core material, the second panel section further having a first side surface , an opposite second side surface , a first edge surface and an opposite second edge surface , - at least one interlocking device configured to interlock the first and second panel sections relative to each other, the at least interlocking device has a first end , an opposite second end , a third side surface and an opposite fourth side surface , - wherein at least the first panel section has at least one first recess arranged in at least its first or second edge surface , the at least one first recess is shaped to receive said first end of the at least one interlocking device , wherein the at least one interlocking device and at least the first panel section have the same thickness so that, when interlocked, said third and fourth side surfaces are substantially flushed with said first and second side surfaces , and a first gap is formed between an inner edge surface of the at least one first recess and an outer edge surface of the first end of the at least one interlocking device , wherein said first gap has a predetermined maximum width.
A wind turbine cooling system comprising a cooling circuit arranged to convey a cooling fluid to and from a heat source , a cooling device arranged to cool the cooling fluid, a pump arranged to circulate the cooling fluid in the cooling circuit , and a cooling fluid tank arranged in fluid connection with the cooling circuit and having a first fluid port adjacent a top of the tank and a second fluid port adjacent a bottom of the tank, wherein the second fluid port is arranged to communicate with the cooling circuit , wherein the pump has an outlet arranged in fluid connection with the cooling circuit and in fluid connection with the tank , and wherein a fluid path between the pump outlet and the tank includes a flow restriction device through which a proportion of cooling fluid discharged from the pump is configured to pass towards the tank , Characterized in that the flow restriction device has an aperture sized to promote return to the tank of any gas in the cooling fluid through the flow restriction device during operation of the pump .