mhurhangee/patent-ind-claim-en huggingface dataset:
A cutting insert , comprising: an upper surface ; a side surface ; and a first cutting edge located at an intersection of the upper surface and the side surface , wherein the upper surface comprises a pair of raised parts located opposite to each other with a perpendicular bisector (L) of the first cutting edge interposed therebetween, a top of each of the pair of raised parts comprises at least two protrusions extending in a direction along the perpendicular bisector (L) in a top view, the first protrusion located on a side closest to the perpendicular bisector (L), and the second protrusion located on a side further away from the perpendicular bisector (L) than the first protrusion , and located at a higher position than the first protrusion , characterised in that the distance between the first protrusions of the pair of raised parts is decreased as separating from the first cutting edge in a top view. an upper surface ; a side surface ; and a first cutting edge located at an intersection of the upper surface and the side surface , wherein the upper surface comprises a pair of raised parts located opposite to each other with a perpendicular bisector (L) of the first cutting edge interposed therebetween, a top of each of the pair of raised parts comprises at least two protrusions extending in a direction along the perpendicular bisector (L) in a top view, the first protrusion located on a side closest to the perpendicular bisector (L), and the second protrusion located on a side further away from the perpendicular bisector (L) than the first protrusion , and located at a higher position than the first protrusion , characterised in that the distance between the first protrusions of the pair of raised parts is decreased as separating from the first cutting edge in a top view.
A control system for an unmanned vehicle (UV), comprising: a housing defining an interior; a first circuit board including one or more processing circuits , the one or more processing circuits including a first processing system and a second processing system having heterogeneous field programmable architectures; and a second circuit board disposed within the interior and in operative communication with the first circuit board , the second circuit board including a plurality of interface circuits connectable with a plurality of vehicle devices of the UV and an input/output (I/O) interface between the plurality of interface circuits and the first and second processing systems; wherein the one or more processing circuits includes a first processing circuit comprising the first processing system and a second processing circuit comprising the second processing system ; characterised in that : the first circuit board (120; 200) is disposed within the interior; and in that : wherein the first processing system includes a first microprocessor and a volatile programmable logic array ; and wherein the second processing system includes a second microprocessor and a non-volatile programmable logic array . a housing defining an interior; a first circuit board including one or more processing circuits , the one or more processing circuits including a first processing system and a second processing system having heterogeneous field programmable architectures; and a second circuit board disposed within the interior and in operative communication with the first circuit board , the second circuit board including a plurality of interface circuits connectable with a plurality of vehicle devices of the UV and an input/output (I/O) interface between the plurality of interface circuits and the first and second processing systems; wherein the one or more processing circuits includes a first processing circuit comprising the first processing system and a second processing circuit comprising the second processing system ; characterised in that : the first circuit board (120; 200) is disposed within the interior; and in that : wherein the first processing system includes a first microprocessor and a volatile programmable logic array ; and wherein the second processing system includes a second microprocessor and a non-volatile programmable logic array . wherein the first processing system includes a first microprocessor and a volatile programmable logic array ; and wherein the second processing system includes a second microprocessor and a non-volatile programmable logic array .
A method of investigating optical surface properties of surfaces with effect pigments, wherein radiation is irradiated by an irradiation device at a pre-set angle of incidence (a1) with respect to the surface onto the surface to be investigated, and the radiation scattered and/or reflected by this surface arrives at a radiation detector device arranged at a pre-set detection angle (b1) with respect to the surface and having an image-recording unit which records black-and-white images, wherein said image-recording unit comprises a plurality of identical image elements, whereby it is suitable for recording black/white or grayscale images wherein this radiation detector device permits a spatially resolved detection of the radiation reaching it, wherein the image-recording unit records a first spatially resolved image (B1) of this radiation scattered and/or reflected from the surface in a first wavelength range (W1) and at least partially time-delayed records a second spatially resolved image (B2) of this radiation scattered and/or reflected from the surface in a second wavelength range (W2), wherein the both wavelength ranges (W1, W2) of the radiation reaching the image-recording device differ by a wavelength separation on the detector side, for example by inserting different filter elements in front of the radiation detector device, and the radiation in the first wavelength range (W1) and the radiation in the second wavelength range (W2) are irradiated at the same angle of incidence (a1) onto the surface , wherein both wavelength ranges of the radiation emitted by the irradiation device do not differ, wherein, however, the wavelength of the radiation reaching onto the image-recording unit differ, characterized in that the first image (B1) and the second image (B2) are compared or calculated with each other, wherein the comparison refers to individual pixel areas of the image, wherein the pixel areas being defined by a mathematical threshold value formation at pixel level or in the histogram, and wherein the mathematical threshold value formation taking place dynamically and the threshold value formation being derived from image information such as image brightness, image contrast.
EQUIPMENT FOR MOULDING HANGERS PROVIDED WITH CLIPS, of the type composed of two form plates (F 1 , F 2 ) arranged mutually opposed, which vary from a mutually approached position (closed mould), for defining the shape of the piece to be moulded by means of injecting different materials, ranging from synthetic plastic to biological, to a mutually spaced position (open mould), for enabling extractor pins (P), fixed on extraction plates (Z 1 , Z 2 ) slidable along a direction parallel to the opening direction of the mould, inside the form plate (F 1 ), to extract a moulded hanger consisting in a body (K) provided with two side clips , formed by a rib supporting a hook , said equipment being characterized in that it provides that the marks, required to make the two side clips , are obtained at the upper part of the outer side surface of the two extractor pins (P), which are positioned at the aforesaid side clips to be made.
A manufacturing method for manufacturing a core for a sound-absorbing panel with sandwich structure for noise reduction in an aircraft, the method comprising the steps of: a) providing a plurality of first sheet-shaped partitioning elements , each first partitioning element having a plurality of vertical slits , which extend transversely from a respective first edge of each first partitioning element ; b) providing a plurality of second sheet-shaped partitioning elements , each second partitioning element having a plurality of vertical slits , which extend transversely from a respective first edge of each second partitioning element ; c) arranging the first partitioning elements on a work surface, spaced from each other so that the distance between two successive first partitioning elements of the plurality of first partitioning elements is not constant, and so that a second edge of each first partitioning element , opposite to said first edge of each first partitioning element , rests on said work surface; and d) arranging the second partitioning elements on the first partitioning elements , transversely thereto, so that each vertical slit of the plurality of vertical slits of the second partitioning elements interlocks with a respective vertical slit of the plurality of vertical slits of a respective first partitioning element , so that the first partitioning elements and the second partitioning elements define between them a plurality of cells , each cell being delimited laterally by a pair of opposing first partitioning elements and a pair of opposing second partitioning elements . a) providing a plurality of first sheet-shaped partitioning elements , each first partitioning element having a plurality of vertical slits , which extend transversely from a respective first edge of each first partitioning element ; b) providing a plurality of second sheet-shaped partitioning elements , each second partitioning element having a plurality of vertical slits , which extend transversely from a respective first edge of each second partitioning element ; c) arranging the first partitioning elements on a work surface, spaced from each other so that the distance between two successive first partitioning elements of the plurality of first partitioning elements is not constant, and so that a second edge of each first partitioning element , opposite to said first edge of each first partitioning element , rests on said work surface; and d) arranging the second partitioning elements on the first partitioning elements , transversely thereto, so that each vertical slit of the plurality of vertical slits of the second partitioning elements interlocks with a respective vertical slit of the plurality of vertical slits of a respective first partitioning element , so that the first partitioning elements and the second partitioning elements define between them a plurality of cells , each cell being delimited laterally by a pair of opposing first partitioning elements and a pair of opposing second partitioning elements .
A crop header arranged for cutting and transporting a standing crop comprising: a draper assembly arranged such that cut crop falls onto the draper assembly for transportation relative to the header ; the draper assembly including a draper guide roller and a continuous loop of belt material wrapped defining an upper run of the belt material on top of the roller and a lower run of the belt material below the roller, wherein the belt material includes a generally horizontal upper edge portion of the upper run of the belt material ; a generally horizontal top support wall of the header adjacent to and spaced from the upper edge portion of the belt material ; a sealing member attached to the top support wall for spanning and sealing between the upper edge portion and the top support wall ; the sealing member comprises a strip of a flexible material which extends from a first edge portion of the strip overlying the top support wall to a second edge portion of the strip which lies over and is in contact with the upper edge portion of the upper run ; a bracket extending between a front edge and an opposite rear edge facing the upper edge portion of the belt material , the rear edge engaging and clamping the first edge portion of the strip against the top support wall ; and a fastener extending through and securing the bracket to the top support wall ; characterized in that the strip , when free from loading forces, is curved around one or more longitudinal axis, and wherein the strip maintains a convex curve between the first edge portion and the second edge portion when under loading forces. a draper assembly arranged such that cut crop falls onto the draper assembly for transportation relative to the header ; the draper assembly including a draper guide roller and a continuous loop of belt material wrapped defining an upper run of the belt material on top of the roller and a lower run of the belt material below the roller, wherein the belt material includes a generally horizontal upper edge portion of the upper run of the belt material ; a generally horizontal top support wall of the header adjacent to and spaced from the upper edge portion of the belt material ; a sealing member attached to the top support wall for spanning and sealing between the upper edge portion and the top support wall ; the sealing member comprises a strip of a flexible material which extends from a first edge portion of the strip overlying the top support wall to a second edge portion of the strip which lies over and is in contact with the upper edge portion of the upper run ; a bracket extending between a front edge and an opposite rear edge facing the upper edge portion of the belt material , the rear edge engaging and clamping the first edge portion of the strip against the top support wall ; and a fastener extending through and securing the bracket to the top support wall ; characterized in that the strip , when free from loading forces, is curved around one or more longitudinal axis, and wherein the strip maintains a convex curve between the first edge portion and the second edge portion when under loading forces.
A virtual network function configuration method, comprising: receiving (S101) a network function configuration request sent by a network management system, wherein the network function configuration request comprises network function requirements of multiple service nodes in a service chain; obtaining (S102), from a network function, NF, instance library, NF instance files that satisfy the network function requirements of the multiple service nodes in the service chain, wherein the NF instance library comprises instance files that satisfy the network function requirements of the multiple service nodes in the service chain, and each instance file is related to a network function based on an acceleration device; and performing (S103) network function configuration on the multiple service nodes in the service chain according to the obtained NF instance files. receiving (S101) a network function configuration request sent by a network management system, wherein the network function configuration request comprises network function requirements of multiple service nodes in a service chain; obtaining (S102), from a network function, NF, instance library, NF instance files that satisfy the network function requirements of the multiple service nodes in the service chain, wherein the NF instance library comprises instance files that satisfy the network function requirements of the multiple service nodes in the service chain, and each instance file is related to a network function based on an acceleration device; and performing (S103) network function configuration on the multiple service nodes in the service chain according to the obtained NF instance files.
A display control method for an electronic device with a foldable screen , wherein the electronic device is in a folded state, a first screen of the electronic device is on, a second screen of the electronic device is off, and the method comprises: when detecting a photographing scenario of a camera and a flip operation on the electronic device, detecting, by the electronic device, whether an object approaches the electronic device, and in response to a detection result, switching, by the electronic device, from performing displaying on the first screen to performing displaying on the second screen when detecting that no object approaches the electronic device, or maintaining, by the electronic device, the first screen on and the second screen off when detecting that an object approaches the electronic device.
A device for determining a contour of a dental treatment area and ablating at least a portion of the dental treatment area, the device comprising: a laser source for generating an ablation laser beam; an ablation laser beam guidance system for guiding, via a handpiece, the ablation laser beam to the dental treatment area; an imaging system to obtain an image of the dental treatment area based on light rays reflected therefrom; characterised in that the device comprises a processor adapted for: (a) generating a first contour of the dental treatment area based on a first image received at the imaging system; (b) generating a second contour of the dental treatment area based on a second image received at the imaging system after ablation of at least a portion of the dental treatment area; and (c) repeating steps (a) and (b) to generate additional contours until treatment is completed; and (d) generating a 3D model of portions of tissue removed from the dental treatment area using the generated contours. a laser source for generating an ablation laser beam; an ablation laser beam guidance system for guiding, via a handpiece, the ablation laser beam to the dental treatment area; an imaging system to obtain an image of the dental treatment area based on light rays reflected therefrom; characterised in that the device comprises a processor adapted for: (a) generating a first contour of the dental treatment area based on a first image received at the imaging system; (b) generating a second contour of the dental treatment area based on a second image received at the imaging system after ablation of at least a portion of the dental treatment area; and (c) repeating steps (a) and (b) to generate additional contours until treatment is completed; and (d) generating a 3D model of portions of tissue removed from the dental treatment area using the generated contours. (a) generating a first contour of the dental treatment area based on a first image received at the imaging system; (b) generating a second contour of the dental treatment area based on a second image received at the imaging system after ablation of at least a portion of the dental treatment area; and (c) repeating steps (a) and (b) to generate additional contours until treatment is completed; and (d) generating a 3D model of portions of tissue removed from the dental treatment area using the generated contours.
A power storage module comprising: a plurality of power storage cells stacked along a first direction; an end plate provided at an end of a stack of the plurality of power storage cells ; and a restraint member that restrains the end plate and the plurality of power storage cells in the first direction, wherein the restraint member includes a thin portion , a thick portion , and a stepped surface between the thin portion and the thick portion , the thin portion and the thick portion being formed in one piece, and the stepped surface is in abutment with the end plate in the first direction. a plurality of power storage cells stacked along a first direction; an end plate provided at an end of a stack of the plurality of power storage cells ; and a restraint member that restrains the end plate and the plurality of power storage cells in the first direction, wherein the restraint member includes a thin portion , a thick portion , and a stepped surface between the thin portion and the thick portion , the thin portion and the thick portion being formed in one piece, and the stepped surface is in abutment with the end plate in the first direction.
A method of wireless communication comprising: detecting an absence of a control transmission from a base station on a component carrier, CC, in an unlicensed radio frequency, RF, spectrum band at a predefined time; performing a listen-before-talk, LBT, procedure based at least in part on the detected absence of the control transmission; and transmitting an unscheduled uplink, UL, message on the CC based at least in part on the LBT procedure, the method further comprising: receiving a dynamic autonomous UL transmission indication from the base station, wherein the unscheduled UL message is transmitted based at least in part on the dynamic autonomous UL transmission indication, wherein the dynamic autonomous UL transmission indication comprises configuration information for initiating, suspending or reconfiguring parameters for unscheduled communication with the base station. detecting an absence of a control transmission from a base station on a component carrier, CC, in an unlicensed radio frequency, RF, spectrum band at a predefined time; performing a listen-before-talk, LBT, procedure based at least in part on the detected absence of the control transmission; and transmitting an unscheduled uplink, UL, message on the CC based at least in part on the LBT procedure, the method further comprising: receiving a dynamic autonomous UL transmission indication from the base station, wherein the unscheduled UL message is transmitted based at least in part on the dynamic autonomous UL transmission indication, wherein the dynamic autonomous UL transmission indication comprises configuration information for initiating, suspending or reconfiguring parameters for unscheduled communication with the base station.
A garnet-related structure crystal represented by the chemical composition Li 7-x-y La 3 Zr 2-x-y Ta x Nb y O 12 (0.05 ≤ x + y ≤ 0.2, x ≥ 0, y ≥ 0), the crystal structure being an orthorhombic system.
A manufacturing method for an oxygen sensor that includes an oxygen sensor element , characterized by comprising: coating both surfaces of a solid electrolyte element of the oxygen sensor element with Pt films as a pair of electrodes, wherein a Pt film coated on a side of the electrolyte to be exposed, during use of the oxygen sensor, to gas to be measured is coated by electroless platinum plating; and heating the Pt film coated by electroless platinum plating, in a gas atmosphere having a higher oxygen gas concentration than atmospheric gas to align a crystal orientation of the Pt film coated by electroless platinum plating with a plane, wherein, during the heating, the oxygen gas concentration is 50 percent by volume or above, and the heating temperature is 1000°C to 1300°C for at least a heating time of an hour or longer. coating both surfaces of a solid electrolyte element of the oxygen sensor element with Pt films as a pair of electrodes, wherein a Pt film coated on a side of the electrolyte to be exposed, during use of the oxygen sensor, to gas to be measured is coated by electroless platinum plating; and heating the Pt film coated by electroless platinum plating, in a gas atmosphere having a higher oxygen gas concentration than atmospheric gas to align a crystal orientation of the Pt film coated by electroless platinum plating with a plane, wherein, during the heating, the oxygen gas concentration is 50 percent by volume or above, and the heating temperature is 1000°C to 1300°C for at least a heating time of an hour or longer.
A method of determining the effectiveness of a compound or combination of compounds for treating or preventing a parasitic worm infection, comprising: (a) infecting an immunocompromised rodent with a specific number of parasitic worm larvae; (b) treating the infected rodent with the compound or combination of compounds to be tested; and (c) necropsying the rodent and determining the number of parasitic worms, optionally adult parasitic worms, present in a rodent tissue; wherein the rodent is an NOD scid IL2 receptor gamma chain knockout mouse (NSG) (NOD-SCID-IL2Ry -/-) or an NRG (NOD-Rag1 null IL2rg null ) immunodeficient mouse; and wherein the parasitic worm is a nematode and the parasitic worm is Dirofilaria immitis, Strongyloides stercoralis or Haemonchus contortus. (a) infecting an immunocompromised rodent with a specific number of parasitic worm larvae; (b) treating the infected rodent with the compound or combination of compounds to be tested; and (c) necropsying the rodent and determining the number of parasitic worms, optionally adult parasitic worms, present in a rodent tissue;