mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a first wireless device, a received power threshold for wireless communications between the first wireless device and a second wireless device; based on a determination that received signal power of at least one wireless communication fails to satisfy the received power threshold, sending, to the second wireless device, a request for transmission of one or more reference signals; receiving, from the second wireless device, the one or more reference signals; and sending, to a base station, a message comprising one or more measurement values associated with the one or more reference signals. receiving, by a first wireless device, a received power threshold for wireless communications between the first wireless device and a second wireless device; based on a determination that received signal power of at least one wireless communication fails to satisfy the received power threshold, sending, to the second wireless device, a request for transmission of one or more reference signals; receiving, from the second wireless device, the one or more reference signals; and sending, to a base station, a message comprising one or more measurement values associated with the one or more reference signals.
Removal device for arranging in a storeroom for bulk material, in particular wood pellets, comprising an essentially closed storage room with a movable at least partly flexible conveying pipe arrangement with a removal head, characterised in that lifting means (16-24, 56, 57) are provided with an electric motor drive unit for assembly inside the storage room, by means of which in an assembled state in the storage room the removal head can be raised and lowered to the surface of the bulk material.
A method for the preservation of a food product in a can, sterilized by a heat treatment after the closing of the can, said can being composed of a single-piece body forming the bottom and the lateral wall of the can, and a lid assembled to this body to close it, the minimal thickness of the lateral wall being comprised between 20 % and 60 % of the thickness of the centre of the bottom, characterized in that said lateral wall of the can is drawn with the Drawn and Wall Ironing technology, in that the height of the can is comprised between 1.5 and 3.5 times the width thereof, and in that the bottom of the can has a central wall of outwardly convex shape connected to the lateral wall through a peripheral groove opening outwardly.
Assembly comprising a solar module supporting structure and solar modules, wherein the solar module supporting structure has vertically oriented posts, inclined bars with integrated connecting elements supported by the posts, inclined struts provided between the posts and bars, and purlins (7, 7a, 7b) mounted on the bars in a transverse direction as supports for the solar modules, the purlins(7, 7a, 7b) having a U-shaped cross-section which is composed of two bracing legs, two mounting flanges and a supporting web, characterized in that purlins (7, 7a) of a first type and purlins of a second type are provided, while above the supporting webs of the purlins (7, 7a) of the first type lateral plug-in grooves are provided in which edges (20, 21) of the solar modules are inserted and in that clamping grooves that are open towards the top are provided at the center of the supporting webs of the purlins of the second type, said clamping grooves receiving spring legs of T-shaped clamping pieces which have cover flaps concavely bent towards the spring legs, the cover flaps clamping the edges (20, 21) of the solar modules by means of the sections of the supporting webs located next to the clamping grooves.
A method comprising: obtaining results of a network content request via a mobile device; determining a geolocation of at least one object associated with the results of the network content request; determining a camera view associated with the mobile device; determining a virtual location in the camera view that represents the actual location of the object relative to a scene contained in the camera view; and displaying a three-dimensional view via the mobile device that includes a graphic representing the object at the virtual location in the camera view, wherein determining the virtual location in the camera view of the mobile device comprises determining a geolocation of the mobile device; wherein determining the geolocation of the mobile device comprises determining an orientation of the mobile device relative to the earth's surface; the method further comprising: selectably displaying via the mobile device at least one of a) the three-dimensional view; and b) a two-dimensional view that includes a first graphic representing the object and a second graphic representing a location of the mobile device relative to the object; and switching between the three-dimensional view and the two-dimensional view based on an orientation of the mobile device relative to the earth's surface. obtaining results of a network content request via a mobile device; determining a geolocation of at least one object associated with the results of the network content request; determining a camera view associated with the mobile device; determining a virtual location in the camera view that represents the actual location of the object relative to a scene contained in the camera view; and displaying a three-dimensional view via the mobile device that includes a graphic representing the object at the virtual location in the camera view, wherein determining the virtual location in the camera view of the mobile device comprises determining a geolocation of the mobile device; wherein determining the geolocation of the mobile device comprises determining an orientation of the mobile device relative to the earth's surface; the method further comprising: selectably displaying via the mobile device at least one of a) the three-dimensional view; and b) a two-dimensional view that includes a first graphic representing the object and a second graphic representing a location of the mobile device relative to the object; and switching between the three-dimensional view and the two-dimensional view based on an orientation of the mobile device relative to the earth's surface. a) the three-dimensional view; and b) a two-dimensional view that includes a first graphic representing the object and a second graphic representing a location of the mobile device relative to the object; and
A resin composition used for forming a second layer in an optical layer including a first layer, which contains a resin material as a main material having light-transmitting properties and a visible light absorber dispersed in the resin material and absorbing visible light, and the second layer protecting the first layer, the resin composition comprising: a silicon-modified (meth)acryl resin; a urethane (meth)acrylate; and a polyfunctional (meth)acrylate, wherein the polyfunctional (meth)acrylate contains a tetrafunctional (meth)acrylate and an aromatic difunctional (meth)acrylate, and a content rate of the tetrafunctional (meth)acrylate in the resin composition is equal to or higher than 40 wt% and equal to or lower than 70 wt%, and wherein the resin composition satisfies the following condition A, condition A: in a case where the second layer having an average thickness of 12 μm is formed on a base material containing a bisphenol-type polycarbonate-based resin as a main material, a coating film of a mixed solvent containing a petroleum-based solvent at a proportion equal to or higher than 45 wt% is formed on the second layer and left as it is under a condition of 85°C × 24 hours, the second layer is then returned to an atmosphere of 25°C, the mixed solvent is removed thereafter, and then a cross-cut method specified in JIS K 5600-5-6 is implemented on the second layer, an adherence of the second layer cut in the form of a lattice with respect to the base material is equal to or higher than 95%. a silicon-modified (meth)acryl resin; a urethane (meth)acrylate; and a polyfunctional (meth)acrylate, wherein the polyfunctional (meth)acrylate contains a tetrafunctional (meth)acrylate and an aromatic difunctional (meth)acrylate, and a content rate of the tetrafunctional (meth)acrylate in the resin composition is equal to or higher than 40 wt% and equal to or lower than 70 wt%, and wherein the resin composition satisfies the following condition A, condition A: in a case where the second layer having an average thickness of 12 μm is formed on a base material containing a bisphenol-type polycarbonate-based resin as a main material, a coating film of a mixed solvent containing a petroleum-based solvent at a proportion equal to or higher than 45 wt% is formed on the second layer and left as it is under a condition of 85°C × 24 hours, the second layer is then returned to an atmosphere of 25°C, the mixed solvent is removed thereafter, and then a cross-cut method specified in JIS K 5600-5-6 is implemented on the second layer, an adherence of the second layer cut in the form of a lattice with respect to the base material is equal to or higher than 95%.
A method of data streaming in a streaming system that comprises a processor, a memory and a network controller operably coupled to a streaming peripheral with a payload buffer via a shared interconnect, the method comprising, at the network controller: reading at least a first descriptor and a second descriptor from the memory via the shared interconnect, wherein the first descriptor points to at least one header data element in the memory and the second descriptor points to at least one payload buffer element stored in the payload buffer of the streaming peripheral; fetching directly the at least one header data element referred by the first descriptor from memory via the shared interconnect and fetching directly via the shared interconnect the at least one payload buffer element from the payload buffer in the streaming peripheral referred to by the second descriptor. reading at least a first descriptor and a second descriptor from the memory via the shared interconnect, wherein the first descriptor points to at least one header data element in the memory and the second descriptor points to at least one payload buffer element stored in the payload buffer of the streaming peripheral; fetching directly the at least one header data element referred by the first descriptor from memory via the shared interconnect and fetching directly via the shared interconnect the at least one payload buffer element from the payload buffer in the streaming peripheral referred to by the second descriptor.
Method for depositing 1-/2-dimensional fibre structures in order to form a 2-/3-dimensional fibre structure, in particular constructed as a fibre reinforced plastic or FRP semi-finished product, with a production machine, comprising at least one depositing device and at least one fibre support, wherein the 1-/2-dimensional fibre structures have at least one unidirectional fibre layer, wherein at least one depositing device deposits the 1-/2-dimensional fibre structures onto at least one fibre support in depositing direction in an ordered manner such that the fibre directions of the deposited 1-/2-dimensional fibre structures assume an angle α>20°, preferably α>60°, and a maximum of α=90° to the depositing direction, wherein the 1-/2-dimensional fibre structures are deposited substantially free of tension as regards their fibre direction on the fibre support, characterized in that the depositing device has no direct contact with the fibre support, but rather forms therewith a gap having a width between 1 mm and 20 mm, and wherein the depositing device has a suction device, by means of which a suction force, fixing the 1-/2-dimensional fibre structures on the depositing device, is generated in the depositing device, wherein at the moment of depositing and/or in the depositing region the suction force at the depositing device is reduced.
A laser weapon system, comprising: one or more lasers for generating electromagnetic radiation; laser optics for directing the generated electromagnetic radiation at a target via a laser aperture; a laser aperture, being a final optical element in the laser weapon system through which the generated electromagnetic radiation exits the weapon; and a control system, the control system being arranged to monitor the three-dimensional position of an object other than the target, and to control a mask to at least limit generated electromagnetic radiation being directed at that object, and characterised in that the mask is a physical mask in the path of the radiation between the laser aperture and the object other than the target for physically blocking or otherwise physically deflecting already generated electromagnetic radiation towards another target or a safe location, in order to at least limit generated electromagnetic radiation being directed at the object other than the target. one or more lasers for generating electromagnetic radiation; laser optics for directing the generated electromagnetic radiation at a target via a laser aperture; a laser aperture, being a final optical element in the laser weapon system through which the generated electromagnetic radiation exits the weapon; and a control system, the control system being arranged to monitor the three-dimensional position of an object other than the target, and to control a mask to at least limit generated electromagnetic radiation being directed at that object, and characterised in that the mask is a physical mask in the path of the radiation between the laser aperture and the object other than the target for physically blocking or otherwise physically deflecting already generated electromagnetic radiation towards another target or a safe location, in order to at least limit generated electromagnetic radiation being directed at the object other than the target.
A permanent cathode to be used as electrode in the electro-refining and/or recovery of metals, such as copper, zinc, cobalt or nickel, whereby the permanent cathode comprises a planar mother plate that is made of metal and comprises two sides; whereby the mother plate comprises an edge, which at least partly surrounds the metal plate; and whereby the edge comprises a groove portion provided with a groove, characterized in that the groove portion comprises at least one bridging section for joining together, over the groove portion of the edge of the metal plate at the said at least one bridging section, the cathode metal halves, such as cathode copper halves, cathode zinc halves, cathode cobalt halves or cathode nickel halves, which are formed on the sides of the mother plate in the electro-refining of the metals, that the groove portion is dimensioned and/or designed such that the cathode metal halves that are formed in electrorefining or electrowinning of metal on the sides of the mother plate are configured to at least partly be connected over the groove portion of the edge of the mother plate, and that said at least one bridging section of the groove portion is dimensioned and/or designed such that between the cathode metal halves is at a such bridging section of the groove portion configured to be formed a stronger connection between the cathode metal halves over the edge of the mother plate than between the cathode metal halves over the edge of the mother plate at other parts of the groove portion.
An illuminated textile, comprising: a textile portion; a plurality of light-emitting diodes (LEDs) secured to, and integral with, the textile portion; one or more sensors configured to detect a deformation of the textile portion from a nominal shape of the textile portion or an orientation of the textile portion; and a controller configured to selectively illuminate the plurality of LEDs integral with the textile portion based on one or more signals provided by the one or more sensors to emit light having a selected lighting property that is proportional to the sensed deformation of the textile portion or based on the sensed orientation. a textile portion; a plurality of light-emitting diodes (LEDs) secured to, and integral with, the textile portion; one or more sensors configured to detect a deformation of the textile portion from a nominal shape of the textile portion or an orientation of the textile portion; and a controller configured to selectively illuminate the plurality of LEDs integral with the textile portion based on one or more signals provided by the one or more sensors to emit light having a selected lighting property that is proportional to the sensed deformation of the textile portion or based on the sensed orientation.
A method for manufacturing a security element (100, 600) comprising the steps of: - supplying a carrier material (200, 300, 400, 500) having at least one region (106, 202, 302, 402, 502, 606) to be coated; - arranging a reflective layer (204, 304, 410) in the region to be coated; - arranging a structured spacer layer (206, 306, 412) at the reflective layer, wherein the structured spacer layer is adapted to protect the reflective layer from a removing; - arranging an absorber layer (212, 312, 416, 512) at least at the structured spacer layer; and - removing the reflective layer in the regions where the removing of the reflective layer is not prevented by the protection of the structured spacer layer. - supplying a carrier material (200, 300, 400, 500) having at least one region (106, 202, 302, 402, 502, 606) to be coated; - arranging a reflective layer (204, 304, 410) in the region to be coated; - arranging a structured spacer layer (206, 306, 412) at the reflective layer, wherein the structured spacer layer is adapted to protect the reflective layer from a removing; - arranging an absorber layer (212, 312, 416, 512) at least at the structured spacer layer; and - removing the reflective layer in the regions where the removing of the reflective layer is not prevented by the protection of the structured spacer layer.
Lithium-sulfur cell comprising an anode structure, a cathode structure (40, 50) and an electrolyte section (20, 30, 32) abutting to the cathode structure, characterized in that the cathode structure comprises a continuous layer of nanotubes or nanowires and sulfur particles, the sulfur particles being attached to the nanotubes or nanowires wherein the continuous layer of nanotubes or nanowires directly or indirectly contacts at least a part of the electrolyte section (20, 30, 32). wherein the anode structure comprises elemental lithium or a lithium alloy and wherein the electrolyte section comprises a solid electrolyte layer, the solid electrolyte layer being provided by a Li-based phosphate glass, a (n)Li 2 S·(100-n)P 2 S 5 glass ceramic with 50 ≤ n ≤ 90, 60 ≤ n ≤ 80, or preferably 65 ≤ n ≤ 75, or another solid electrolyte permable for Li-ions, which is an electrical insulator wherein the nanotubes or nanowires are provided by an electronic conducting material, in particular a metal or an alloy, in combination with an added liquid electrolyte within the cathode structure, wherein this combination provides a mixed conductor structure.
A system for supporting a heart valve having at least two leaflets, the system comprising: at least one fastening catheter (22, 24) having a distal end and defining at least two adjacent lumens extending through the distal end and including at least one fastener (50; 126; 226; 326) coupled to the fastening catheter (22, 24), wherein the at least one fastening catheter (22, 24) includes a first fastening catheter and a second fastening catheter; and at least one leaflet brace (18, 20) having an elongate flexible structure configured to extend through one of the lumens and around at least one leaflet (6, 7) of the heart valve, wherein the at least one leaflet brace (18, 20) includes a first leaflet brace and a second leaflet brace; wherein a first pair of adjacent ends of the first and second leaflet braces (18, 20) are configured to extend through the adjacent lumens of the first fastening catheter and a second pair of adjacent ends of the first and second leaflet braces (18, 20) are configured to extend through the adjacent lumens of the second fastening catheter; wherein the fastener (50; 126; 226; 326) of the first fastening catheter is configured to attach together the first pair of adjacent ends and the fastener (50; 126; 226; 326) of the second fastening catheter is configured to attach together the second pair of adjacent ends to form an annular loop encircling the at least one leaflet (6, 7) of the heart valve. at least one fastening catheter (22, 24) having a distal end and defining at least two adjacent lumens extending through the distal end and including at least one fastener (50; 126; 226; 326) coupled to the fastening catheter (22, 24), wherein the at least one fastening catheter (22, 24) includes a first fastening catheter and a second fastening catheter; and at least one leaflet brace (18, 20) having an elongate flexible structure configured to extend through one of the lumens and around at least one leaflet (6, 7) of the heart valve, wherein the at least one leaflet brace (18, 20) includes a first leaflet brace and a second leaflet brace; wherein a first pair of adjacent ends of the first and second leaflet braces (18, 20) are configured to extend through the adjacent lumens of the first fastening catheter and a second pair of adjacent ends of the first and second leaflet braces (18, 20) are configured to extend through the adjacent lumens of the second fastening catheter; wherein the fastener (50; 126; 226; 326) of the first fastening catheter is configured to attach together the first pair of adjacent ends and the fastener (50; 126; 226; 326) of the second fastening catheter is configured to attach together the second pair of adjacent ends to form an annular loop encircling the at least one leaflet (6, 7) of the heart valve.
An electronic product metal shell having an antenna groove, the electronic product metal shell comprising a metal layer and a hard anodic oxidation layer; wherein the hard anodic oxidation layer is coated on the surface of the metal layer; and a step is formed on a first surface of the electronic product metal shell, wherein the antenna groove is disposed within the step and a non-conductive material is filled in the antenna groove, characterized in that the step penetrates through the hard anodic oxidation layer coated on a first surface of the metal layer and part of the metal layer in a thickness direction of the electronic product metal shell and the antenna groove penetrates through residual part of the metal layer in the thickness direction wherein an inner side of the hard anodic oxidation layer coated on a second surface of the metal layer is exposed.