mhurhangee/ep-ind-claims huggingface dataset:
An electronic speaker device comprising: a housing component; an acoustic waveguide, the acoustic waveguide generally planar; a printed circuit board including at least one integrated circuit device (504, 506), the printed circuit board generally planar; and a passive thermal-control system to transfer heat generated by the at least one integrated circuit device (504, 506) to the housing component, the passive thermal-control system comprising: a first heat spreader in thermal contact with the printed circuit board; a second heat spreader in thermal contact with the at least one integrated circuit device (504, 506); and a third heat spreader in thermal contact with the acoustic waveguide, the third heat spreader foldable along a portion (614; 708) of a perimeter of the acoustic waveguide to enable the third heat spreader to be in thermal contact with two opposing surfaces/sides of the acoustic waveguide. a housing component; an acoustic waveguide, the acoustic waveguide generally planar; a printed circuit board including at least one integrated circuit device (504, 506), the printed circuit board generally planar; and a passive thermal-control system to transfer heat generated by the at least one integrated circuit device (504, 506) to the housing component, the passive thermal-control system comprising: a first heat spreader in thermal contact with the printed circuit board; a second heat spreader in thermal contact with the at least one integrated circuit device (504, 506); and a third heat spreader in thermal contact with the acoustic waveguide, the third heat spreader foldable along a portion (614; 708) of a perimeter of the acoustic waveguide to enable the third heat spreader to be in thermal contact with two opposing surfaces/sides of the acoustic waveguide. a first heat spreader in thermal contact with the printed circuit board; a second heat spreader in thermal contact with the at least one integrated circuit device (504, 506); and a third heat spreader in thermal contact with the acoustic waveguide, the third heat spreader foldable along a portion (614; 708) of a perimeter of the acoustic waveguide to enable the third heat spreader to be in thermal contact with two opposing surfaces/sides of the acoustic waveguide.
An axle support for a motor vehicle having a reinforcing element which is formed as a fibrous composite component, is at least approximately planar, and which is secured to individual supports of the axle support, which in turn is assembled from a left-side and a right-side longitudinal chassis beam each extending at least approximately in the vehicle longitudinal direction and connected to one another via at least one, preferably a plurality of transverse chassis beams extending at least approximately in the vehicle transverse direction, characterised in that the reinforcing element is constructed in a multi-layered manner and, besides a lower and an upper cover layer (11, 17), has at least one intermediate layer extending over the full planar extent, similarly to the cover layers (11, 17), with endless fibre bands with fibres oriented in an aligned manner being introduced above and below the intermediate layer, said endless fibre bands being narrow relative to the width measured in the vehicle transverse direction or relative to the length of the cover layers (11, 17) measured in the vehicle longitudinal direction, at least one of said endless fibre bands at least approximately covering an individual support of the axle support in a vertical projection.
A transmission system comprising: an active transmitter; a backup transmitter comprising a setting table arranged to store a setting value relating to a frequency and a level of a signal outputted from the active transmitter, a power amplifier arranged to amplify an input signal and output an amplified signal, and a modulator/exciter arranged to, based on the setting table, convert the input signal into a modulation signal of a prescribed broadcast type in which nonlinear distortion by the power amplifier has been compensated; and a system controller arranged to integrally control the active transmitter and the backup transmitter, and at a time of adjusting the output level of the active transmitter, perform control of the backup transmitter based on the adjusted output level so that content of the setting table becomes a setting value corresponding to the adjusted output level of the active transmitter. an active transmitter; a backup transmitter comprising a setting table arranged to store a setting value relating to a frequency and a level of a signal outputted from the active transmitter, a power amplifier arranged to amplify an input signal and output an amplified signal, and a modulator/exciter arranged to, based on the setting table, convert the input signal into a modulation signal of a prescribed broadcast type in which nonlinear distortion by the power amplifier has been compensated; and a system controller arranged to integrally control the active transmitter and the backup transmitter, and at a time of adjusting the output level of the active transmitter, perform control of the backup transmitter based on the adjusted output level so that content of the setting table becomes a setting value corresponding to the adjusted output level of the active transmitter.
A floor panel apparatus comprising: a beam arranged inside an aircraft main body; a floor panel arranged on the beam; and a ball transfer unit bolt including a ball transfer unit in which a rotatable ball is disposed and a bolt portion which is integral with the ball transfer unit, the ball transfer unit bolt configured such that the floor panel and the beam are detachably fastened together by the bolt portion with the ball protruding on the floor panel side. a beam arranged inside an aircraft main body; a floor panel arranged on the beam; and a ball transfer unit bolt including a ball transfer unit in which a rotatable ball is disposed and a bolt portion which is integral with the ball transfer unit, the ball transfer unit bolt configured such that the floor panel and the beam are detachably fastened together by the bolt portion with the ball protruding on the floor panel side.
Hand-held electric tool having a tool housing in which a gearing for transmitting a torque generated by a drive motor to a drive spindle is arranged, said drive spindle being assigned a spindle-locking device, wherein the drive spindle is mounted in the tool housing so as to be rotatable at at least two bearing points (132, 134), wherein the at least two bearing points (132, 134) are provided in the tool housing in a region mounted downstream of the gearing, and the spindle-locking device is arranged between the two bearing points (132, 134) in the axial direction of the drive spindle, characterized in that the spindle-locking device has a carrier element which is mounted on the drive spindle and on which at least one spindle roller is arranged.
A method for producing a cartilage-damage treatment agent, comprising the steps of: (i) proliferating mesenchymal stem cells in a serum-free medium A containing an FGF, a PDGF, a TGF-β, an HGF, an EGF, at least one phospholipid and at least one fatty acid; and (ii) mixing the mesenchymal stem cells thus proliferated in the step (i), an isotonic preserving agent, and a cytoprotective agent. (i) proliferating mesenchymal stem cells in a serum-free medium A containing an FGF, a PDGF, a TGF-β, an HGF, an EGF, at least one phospholipid and at least one fatty acid; and (ii) mixing the mesenchymal stem cells thus proliferated in the step (i), an isotonic preserving agent, and a cytoprotective agent.
A tire comprising a tread, wherein the tread is composed of a rubber composition comprising a rubber component, silica, and a softening agent, wherein the rubber component comprises a butadiene rubber, wherein the softening agent comprises a modified liquid butadiene rubber that is modified with a functional group that interacts with silica, wherein, when a content of the butadiene rubber after the rubber composition subjected to vulcanization is extracted with tetrahydrofuran is defined as X (% by mass), a tire cross-sectional width is defined as Wt (mm), and a tire outer diameter is defined as Dt (mm), X, Wt, and Dt satisfy the following inequalities and. π / 4 × Dt 2 /Wt > 1622 X > 1.77 × 10 − 3 × π / 4 × Dt 2 /Wt wherein the tread is composed of a rubber composition comprising a rubber component, silica, and a softening agent, wherein the rubber component comprises a butadiene rubber, wherein the softening agent comprises a modified liquid butadiene rubber that is modified with a functional group that interacts with silica, wherein, when a content of the butadiene rubber after the rubber composition subjected to vulcanization is extracted with tetrahydrofuran is defined as X (% by mass), a tire cross-sectional width is defined as Wt (mm), and a tire outer diameter is defined as Dt (mm), X, Wt, and Dt satisfy the following inequalities and. π / 4 × Dt 2 /Wt > 1622 X > 1.77 × 10 − 3 × π / 4 × Dt 2 /Wt
A blow molding apparatus, comprising: an injection molding part configured to injection-mold a resin preform having a bottomed shape; a blow molding part configured to blow-mold the preform to manufacture a resin container; a machine bed; an upper base disposed at intervals in a vertical direction from the machine bed; a transport plate configured to rotate at a height position of the upper base to convey the preform between the injection molding part and the blow molding part; an elevation mechanism configured to move the transport plate or the upper base up and down in the vertical direction with respect to a mold disposed on the machine bed; and characterized in that the blow molding apparatus comprises further a height adjusting part configured to adjust a stroke of the transport plate or the upper base in the vertical direction with respect to the machine bed. an injection molding part configured to injection-mold a resin preform having a bottomed shape; a blow molding part configured to blow-mold the preform to manufacture a resin container; a machine bed; an upper base disposed at intervals in a vertical direction from the machine bed; a transport plate configured to rotate at a height position of the upper base to convey the preform between the injection molding part and the blow molding part; an elevation mechanism configured to move the transport plate or the upper base up and down in the vertical direction with respect to a mold disposed on the machine bed; and characterized in that the blow molding apparatus comprises further a height adjusting part configured to adjust a stroke of the transport plate or the upper base in the vertical direction with respect to the machine bed.
A whitening adhesive for coating teeth comprising a conjugate of a polyallylamine, a polyphosphate, and a whitening agent and having the ability to interact with or bind to a tooth, a tooth component, or an inorganic dental material, wherein whitening agent of said whitening adhesive is non-covalently attached to said polyallylamine, wherein whitening agent of said whitening adhesive is non-covalently attached to said polyphosphate, and wherein the whitening agent of said whitening adhesive provides teeth with a white appearance when said whitening adhesive is adhered as a coating to said tooth, said tooth component, or said inorganic dental material.
A method in a computing device for generating a wrapper for hierarchically organized documents, each document having a document tree, the method comprising: creating a wrapper tree T w for a document tree T d, wherein the wrapper tree is a hierarchy of wrapper nodes that define document trees that have a similar template and represents a wrapper used to extract data from document trees that have said template; selecting a document tree whose distance to the wrapper tree is within a threshold, wherein the distance between the document tree and the wrapper tree is defined as: Ψ T w T d = C w T w T d W T w + C d T w T d W T d / 2 wherein C d ( T w,T d) represents a count of nodes of document tree T d that do not match wrapper nodes, wherein C w ( T w,T d) represents nodes of the wrapper tree T w that do not match document nodes, wherein W ( T d) represents a weight of the document tree T d, and wherein W ( T w) represents a weight of the wrapper tree T w; and adjusting the wrapper tree based on the document tree, wherein the wrapper is based on the adjusted wrapper tree. creating a wrapper tree T w for a document tree T d, wherein the wrapper tree is a hierarchy of wrapper nodes that define document trees that have a similar template and represents a wrapper used to extract data from document trees that have said template; selecting a document tree whose distance to the wrapper tree is within a threshold, wherein the distance between the document tree and the wrapper tree is defined as: Ψ T w T d = C w T w T d W T w + C d T w T d W T d / 2 wherein C d ( T w,T d) represents a count of nodes of document tree T d that do not match wrapper nodes, wherein C w ( T w,T d) represents nodes of the wrapper tree T w that do not match document nodes, wherein W ( T d) represents a weight of the document tree T d, and wherein W ( T w) represents a weight of the wrapper tree T w; and adjusting the wrapper tree based on the document tree, wherein the wrapper is based on the adjusted wrapper tree. wherein C d ( T w,T d) represents a count of nodes of document tree T d that do not match wrapper nodes, wherein C w ( T w,T d) represents nodes of the wrapper tree T w that do not match document nodes, wherein W ( T d) represents a weight of the document tree T d, and wherein W ( T w) represents a weight of the wrapper tree T w; and adjusting the wrapper tree based on the document tree, wherein the wrapper is based on the adjusted wrapper tree.
A method of preparing a sample from a milk or dairy product, the method comprising: adding a binder to the sample, the binder including a binding additive for binding the content; homogenizing the sample; and pressing the homogenised sample, the binder, and the binding additive into a pellet; and wherein the binding additive comprises activated carbon. adding a binder to the sample, the binder including a binding additive for binding the content; homogenizing the sample; and pressing the homogenised sample, the binder, and the binding additive into a pellet; and wherein the binding additive comprises activated carbon.
A blade for a gas turbine engine, comprising: an airfoil including an internal passage; a shroud is arranged at an end of the airfoil and has a shroud perimeter; axially spaced knife edges extend radially from the shroud, and an area is provided between the knife edges; a pocket is recessed into the area and is circumscribed by a perimeter edge that is arranged interiorly of the shroud perimeter; and an outlet fluidly connects the internal passage to the pocket; characterised in that the pocket has first and second bottom surfaces (78, 80) joined at a peak, and the outlet is arranged on at least one side of the peak. an airfoil including an internal passage; a shroud is arranged at an end of the airfoil and has a shroud perimeter; axially spaced knife edges extend radially from the shroud, and an area is provided between the knife edges; a pocket is recessed into the area and is circumscribed by a perimeter edge that is arranged interiorly of the shroud perimeter; and an outlet fluidly connects the internal passage to the pocket;
A control system that controls a plurality of augers (52, 54), comprising: a data input unit; and a processing unit configured to receive data input from the data input unit and to generate and distribute a plurality of output signals that are derived from the data input, characterized in that each of the plurality of output signals including at least one control setting for a first auger, the at least one control setting including a rotational position for the first auger relative to a rotational position for a second auger. a data input unit; and a processing unit configured to receive data input from the data input unit and to generate and distribute a plurality of output signals that are derived from the data input, characterized in that each of the plurality of output signals including at least one control setting for a first auger, the at least one control setting including a rotational position for the first auger relative to a rotational position for a second auger.
A particulate matter impact sensor for sensing impacts of grain particles comprising: a support layer; and a sensing media layer having a first surface that faces a direction of flow of grain particles and a second surface on the opposite side of the sensing media layer bonded to a first surface of the support layer, and a protective layer that is fixed to the sensing media layer and located between the grain particles impacting the particulate matter impact sensor and the sensing media layer; wherein the sensing media layer comprises an impact responsive layer comprising a pressure sensitive media adapted to change its electrical characteristics upon the impact of a grain particle traveling in the direction of flow of grain particles and to produce an electrical signal at one or more electrical connections (312, 314) electrically coupled to the sensing media layer; and the sensing media layer further has an upper conductive layer on its first surface, the upper conductive layer coupled to one of the electrical connections and a lower conductive layer on its second surface, the lower conductive layer coupled to another one of the electrical connections; characterized in that the protective layer is a flexible film layer and that the lower conductive layer and the upper conductive layer each comprise a film base to which a conductive media is deposited by a sputter-, vapor- or plasma deposition process. a support layer; and a sensing media layer having a first surface that faces a direction of flow of grain particles and a second surface on the opposite side of the sensing media layer bonded to a first surface of the support layer, and a protective layer that is fixed to the sensing media layer and located between the grain particles impacting the particulate matter impact sensor and the sensing media layer; wherein the sensing media layer comprises an impact responsive layer comprising a pressure sensitive media adapted to change its electrical characteristics upon the impact of a grain particle traveling in the direction of flow of grain particles and to produce an electrical signal at one or more electrical connections (312, 314) electrically coupled to the sensing media layer; and the sensing media layer further has an upper conductive layer on its first surface, the upper conductive layer coupled to one of the electrical connections and a lower conductive layer on its second surface, the lower conductive layer coupled to another one of the electrical connections; characterized in that the protective layer is a flexible film layer and that the lower conductive layer and the upper conductive layer each comprise a film base to which a conductive media is deposited by a sputter-, vapor- or plasma deposition process.
An electric lamp comprising a light-transmitting lamp vessel which accommodates a light source, wherein at least a part of the lamp vessel is provided with a light-absorbing coating, the light-absorbing coating comprising stabilized pigments which are incorporated in a sol-gel matrix, characterized in that an aminosilane is present in order to stabilize the pigments.
A packaging box, comprising: a box body and at least one baffle arranged inside a cavity of the box body, wherein the at least one baffle divides the cavity of the box body into at least two cavities; wherein the box body is integrally press-formed from a plate provided with a plurality of bending dents; and each of the at least one baffle is formed by bonding of adj acent side walls of two adjacent quadrilateral positioning frames, and an extension wall for positioning the quadrilateral positioning frames is foldable and disposed at each of a first side wall of the box body and a second side wall of the box body; wherein the extension wall is folded into the cavity of the box body, characterized in that the box comprises a box cover integral with the box body and an end of the extension wall is contacted with a bottom of the box, and the bottom of the box faces to the box cover. wherein the box body is integrally press-formed from a plate provided with a plurality of bending dents; and each of the at least one baffle is formed by bonding of adj acent side walls of two adjacent quadrilateral positioning frames, and an extension wall for positioning the quadrilateral positioning frames is foldable and disposed at each of a first side wall of the box body and a second side wall of the box body; wherein the extension wall is folded into the cavity of the box body, characterized in that the box comprises a box cover integral with the box body and an end of the extension wall is contacted with a bottom of the box, and the bottom of the box faces to the box cover.
A nickel-based superalloy, characterized in that the nickel-based superalloy is prepared by 3D printing using following raw materials; the raw materials comprise following composition by mass percentage: less than or equal to 0.3% of C, less than 5% of Co, 13-15% of W, 20-24% of Cr, 1-3% of Mo, 0.2-0.5% of Al, less than 0.1% of Ti, less than 3% of Fe, less than 0.015% of B, 0.001-0.004% of La, 0.01-0.2% of Mn, and 0.02-0.2% of Si, with a balance being Ni; the nickel-based superalloy has no cracks; in the microstructure of the nickel-based superalloy, an average size of carbide is 150-200 nm, and a size distribution of the carbide is 50 nm-4 μm; the carbide in the nickel-based superalloy comprises primary carbides and secondary carbides; the primary carbide has a size of 200 nm-4 μm and is located in a W and Mo elements enriched region between dendrites and cellular crystals; and the secondary carbide has a size of 50-150 nm and is located partially at an interface and partially inside a grain, wherein the 3D printing is the selective laser melting, and process parameters during the selective laser melting comprise: (a) laser power: 100-700 W; (b) laser scanning speed: 600-2000 mm/s; (c) spot diameter: 40-110 μm; (d) laser spacing: 80-120 μm; and (e) powder thickness: 20-80 μm. the raw materials comprise following composition by mass percentage: less than or equal to 0.3% of C, less than 5% of Co, 13-15% of W, 20-24% of Cr, 1-3% of Mo, 0.2-0.5% of Al, less than 0.1% of Ti, less than 3% of Fe, less than 0.015% of B, 0.001-0.004% of La, 0.01-0.2% of Mn, and 0.02-0.2% of Si, with a balance being Ni; the nickel-based superalloy has no cracks; in the microstructure of the nickel-based superalloy, an average size of carbide is 150-200 nm, and a size distribution of the carbide is 50 nm-4 μm; the carbide in the nickel-based superalloy comprises primary carbides and secondary carbides; the primary carbide has a size of 200 nm-4 μm and is located in a W and Mo elements enriched region between dendrites and cellular crystals; and the secondary carbide has a size of 50-150 nm and is located partially at an interface and partially inside a grain, wherein the 3D printing is the selective laser melting, and process parameters during the selective laser melting comprise: (a) laser power: 100-700 W; (b) laser scanning speed: 600-2000 mm/s; (c) spot diameter: 40-110 μm; (d) laser spacing: 80-120 μm; and (e) powder thickness: 20-80 μm. (a) laser power: 100-700 W; (b) laser scanning speed: 600-2000 mm/s; (c) spot diameter: 40-110 μm; (d) laser spacing: 80-120 μm; and (e) powder thickness: 20-80 μm.