mhurhangee/patent-ind-claim-en huggingface dataset:
A high solid content flame retardant and iodine stain resistant radiation curable topcoat composition comprising: (a) a thermoplastic component including one or both of ethylene vinyl acetate resin comprising 5-45% of vinyl acetate units in its backbone and chloride vinyl acetate resin comprising 3-45% of vinyl acetate units in its backbone; and (b) a radiation curable component including: (b-1) one or more acrylic oligomers selected from polyurethane acrylate, polyester acrylate, epoxy acrylate, and oligomers comprising one or more acrylic repeating units; and (b-2) one or more acrylic monomers comprising isobornyl acrylate (IBOA), isodecyl acrylate (IDA), trimethylolpropane triacrylate (TMPTA), pentaerythritol triacrylate (PETA), or pentaerythritol tetraacrylate (PETTA), wherein the composition comprises 50 to 100 wt. % of solid components. (a) a thermoplastic component including one or both of ethylene vinyl acetate resin comprising 5-45% of vinyl acetate units in its backbone and chloride vinyl acetate resin comprising 3-45% of vinyl acetate units in its backbone; and (b) a radiation curable component including: (b-1) one or more acrylic oligomers selected from polyurethane acrylate, polyester acrylate, epoxy acrylate, and oligomers comprising one or more acrylic repeating units; and (b-2) one or more acrylic monomers comprising isobornyl acrylate (IBOA), isodecyl acrylate (IDA), trimethylolpropane triacrylate (TMPTA), pentaerythritol triacrylate (PETA), or pentaerythritol tetraacrylate (PETTA), (b-1) one or more acrylic oligomers selected from polyurethane acrylate, polyester acrylate, epoxy acrylate, and oligomers comprising one or more acrylic repeating units; and (b-2) one or more acrylic monomers comprising isobornyl acrylate (IBOA), isodecyl acrylate (IDA), trimethylolpropane triacrylate (TMPTA), pentaerythritol triacrylate (PETA), or pentaerythritol tetraacrylate (PETTA),
A timepiece case , comprising: a fitting surface facing a lid member when the lid member is fitted to the timepiece case , the timepiece case being formed of ceramics, which is any one selected from aluminum oxide-based ceramics, zirconium oxide-based ceramics and silicon nitride-based ceramics, an arithmetic mean roughness Ra, as defined in JIS B 0601 , of the fitting surface which is obtained from a roughness profile, being 0.6 um or less, a reduced peak height Rpk, as defined in JIS B 0671-2 , of the fitting surface which is obtained from the roughness profile, being 0.9 um or less. a fitting surface facing a lid member when the lid member is fitted to the timepiece case , the timepiece case being formed of ceramics, which is any one selected from aluminum oxide-based ceramics, zirconium oxide-based ceramics and silicon nitride-based ceramics, an arithmetic mean roughness Ra, as defined in JIS B 0601 , of the fitting surface which is obtained from a roughness profile, being 0.6 um or less, a reduced peak height Rpk, as defined in JIS B 0671-2 , of the fitting surface which is obtained from the roughness profile, being 0.9 um or less.
A light emitting apparatus, comprising: a substrate ; at least one light source emitting a blue light ; a wavelength converter disposed on the substrate to convert a wavelength of light emitted from the at least one light source; a reflector which comprises an opening formed at a point nearest to the wavelength converter to allow the blue light emitted from the at least one light source to progress toward the wavelength converter, the reflector being disposed on the substrate to reflect light from the wavelength converter; and characterised by a refracting member between the reflector and the wavelength converter filling a path through which the light emitted from the at least one light source passes, the refracting member having a first refractive index different from a second refractive index of the wavelength converter, wherein the blue light is mirror-reflected by the wavelength converter due to a difference between the first refractive index and the second refractive index, wherein the reflector further comprises a passing through hole (PT), the passing through hole (PT) being formed to allow the blue light to pass through at a point at which the blue light mirror-reflected by the wavelength converter arrives. a substrate ; at least one light source emitting a blue light ; a wavelength converter disposed on the substrate to convert a wavelength of light emitted from the at least one light source; a reflector which comprises an opening formed at a point nearest to the wavelength converter to allow the blue light emitted from the at least one light source to progress toward the wavelength converter, the reflector being disposed on the substrate to reflect light from the wavelength converter; and characterised by a refracting member between the reflector and the wavelength converter filling a path through which the light emitted from the at least one light source passes, the refracting member having a first refractive index different from a second refractive index of the wavelength converter, wherein the blue light is mirror-reflected by the wavelength converter due to a difference between the first refractive index and the second refractive index, wherein the reflector further comprises a passing through hole (PT), the passing through hole (PT) being formed to allow the blue light to pass through at a point at which the blue light mirror-reflected by the wavelength converter arrives.
An electronic device , comprising: a foldable display including a first display portion and a second display portion ; a shaft disposed between the first display portion and the second display portion , the first display portion and the second display portion being configured to rotate about the shaft with respect to each other to fold or unfold the foldable display ; wherein a length of the shaft is larger than a width of the second display portion, and when a time is displayed in the first display portion or the second display portion when the foldable display is folded, a direction of the shaft is vertical to a direction of displayed time; at least one camera disposed in a sub-area of the first display portion, the sub-area of the first display portion having a body thickness at the sub-area equal to a thickness of the electronic device when the foldable display is folded. a foldable display including a first display portion and a second display portion ; a shaft disposed between the first display portion and the second display portion , the first display portion and the second display portion being configured to rotate about the shaft with respect to each other to fold or unfold the foldable display ; wherein a length of the shaft is larger than a width of the second display portion, and when a time is displayed in the first display portion or the second display portion when the foldable display is folded, a direction of the shaft is vertical to a direction of displayed time; at least one camera disposed in a sub-area of the first display portion, the sub-area of the first display portion having a body thickness at the sub-area equal to a thickness of the electronic device when the foldable display is folded.
A secondary battery, comprising: a positive electrode comprising a current collector coated with a positive electrode mixture that comprises a positive electrode active material; a negative electrode comprising a current collector coated with a negative electrode mixture that comprises a negative electrode active material; and an electrolyte solution comprising a lithium salt and a non-aqueous solvent, and additionally comprising vinylene carbonate (VC) and fluoroethylene carbonate (FEC),wherein the negative electrode comprises a carbon-based material and a silicon-based compound in a weight ratio of 90:10 to 99:1, and the non-aqueous solvent comprises cyclic carbonate and a linear solvent, wherein the silicon-based compound is silicon oxide (SiO), and wherein the silicon oxide (SiO) comprises silicon dioxide (SiO 2 ) and amorphous silicon mixed in a weight ratio of 1:1., the cyclic carbonate and the linear solvent being mixed in a volume ratio of 1:1 to 1:3, a content of the vinylene carbonate (VC) being 1.0% by weight or more and 4.0% by weight or less based on a total weight of the electrolyte solution, and a content of the fluoroethylene carbonate (FEC) being 2% by weight or more and 7% by weight and less based on a total weight of the electrolyte solution, characterized in that the linear solvent includes linear carbonate and linear ester. a positive electrode comprising a current collector coated with a positive electrode mixture that comprises a positive electrode active material; a negative electrode comprising a current collector coated with a negative electrode mixture that comprises a negative electrode active material; and an electrolyte solution comprising a lithium salt and a non-aqueous solvent, and additionally comprising vinylene carbonate (VC) and fluoroethylene carbonate (FEC),wherein the negative electrode comprises a carbon-based material and a silicon-based compound in a weight ratio of 90:10 to 99:1, and the non-aqueous solvent comprises cyclic carbonate and a linear solvent, wherein the silicon-based compound is silicon oxide (SiO), and wherein the silicon oxide (SiO) comprises silicon dioxide (SiO 2 ) and amorphous silicon mixed in a weight ratio of 1:1., the cyclic carbonate and the linear solvent being mixed in a volume ratio of 1:1 to 1:3, a content of the vinylene carbonate (VC) being 1.0% by weight or more and 4.0% by weight or less based on a total weight of the electrolyte solution, and a content of the fluoroethylene carbonate (FEC) being 2% by weight or more and 7% by weight and less based on a total weight of the electrolyte solution, characterized in that the linear solvent includes linear carbonate and linear ester.
Thermal management system , for an electrical component liable to release heat during its operation, in particular for an electrical energy storage module, this system comprising: - at least one housing intended to receive at least one electrical component, notably a plurality of such housings arranged in parallel; - at least one heat exchange plate extending over at least part of the surface of the lateral face of the housing, said at least one plate comprising at least one canal for heat-transfer fluid between a fluid inlet and a fluid outlet of said plate ; - an intake duct configured to supply the plate with heat-transfer fluid via the fluid inlet of the plate and a discharge duct configured to remove the heat-transfer fluid from the plate via the fluid outlet of the plate, - a casing defining the housing or housings and receiving the heat-exchange plate and the intake and discharge ducts, said system being characterized in that it furthermore comprises - a fluid collecting tank arranged to collect any fluid that might leak from the junction between the fluid inlet and outlet of the plate and the associated intake and discharge ducts, so as to prevent this leaking fluid from dropping into the casing, notably into a region containing the at least one electrical component. - at least one housing intended to receive at least one electrical component, notably a plurality of such housings arranged in parallel; - at least one heat exchange plate extending over at least part of the surface of the lateral face of the housing, said at least one plate comprising at least one canal for heat-transfer fluid between a fluid inlet and a fluid outlet of said plate ; - an intake duct configured to supply the plate with heat-transfer fluid via the fluid inlet of the plate and a discharge duct configured to remove the heat-transfer fluid from the plate via the fluid outlet of the plate, - a casing defining the housing or housings and receiving the heat-exchange plate and the intake and discharge ducts, said system being characterized in that it furthermore comprises - a fluid collecting tank arranged to collect any fluid that might leak from the junction between the fluid inlet and outlet of the plate and the associated intake and discharge ducts, so as to prevent this leaking fluid from dropping into the casing, notably into a region containing the at least one electrical component.
A heat radiation device comprising: a heat generator; a heat radiator; and a heat conductive sheet attached in a sandwiched manner between the heat generator and the heat radiator, wherein the heat conductive sheet contains a resin and an expanded graphite, a heat conductivity of the heat conductive sheet in a thickness direction is 15 W/m·K or more, and an area of a sandwiched surface of the heat conductive sheet is smaller than an area of an attached surface of the heat generator and the heat radiator. a heat generator; a heat radiator; and a heat conductive sheet attached in a sandwiched manner between the heat generator and the heat radiator, wherein the heat conductive sheet contains a resin and an expanded graphite, a heat conductivity of the heat conductive sheet in a thickness direction is 15 W/m·K or more, and an area of a sandwiched surface of the heat conductive sheet is smaller than an area of an attached surface of the heat generator and the heat radiator.
A non-combustion heating-type smoking device comprising: a receiving cavity for receiving a tobacco rod containing cut tobacco and an aerosol-source material; an internal heater that is disposed in the receiving cavity to penetrate a tobacco rod inserted into the receiving cavity or to be inserted into a recessed portion formed on an end surface of the tobacco rod , the internal heater being configured to heat the tobacco rod from inside to volatilize the aerosol-source material; and an external heater that is disposed at a side peripheral portion of the receiving cavity and suppresses condensation of aerosol generated during operation of the internal heater by preheating an outer peripheral portion of the tobacco rod during at least a period of preheating the tobacco rod ; and a control unit that controls the internal heater and the external heater, wherein the control unit performs control to cause a temperature of the external heater to be higher than a temperature of the internal heater in a simultaneous heating period in which both the internal heater and the external heater are operated. a receiving cavity for receiving a tobacco rod containing cut tobacco and an aerosol-source material; an internal heater that is disposed in the receiving cavity to penetrate a tobacco rod inserted into the receiving cavity or to be inserted into a recessed portion formed on an end surface of the tobacco rod , the internal heater being configured to heat the tobacco rod from inside to volatilize the aerosol-source material; and an external heater that is disposed at a side peripheral portion of the receiving cavity and suppresses condensation of aerosol generated during operation of the internal heater by preheating an outer peripheral portion of the tobacco rod during at least a period of preheating the tobacco rod ; and a control unit that controls the internal heater and the external heater, wherein the control unit performs control to cause a temperature of the external heater to be higher than a temperature of the internal heater in a simultaneous heating period in which both the internal heater and the external heater are operated.
A coupler , comprising: a direct current, DC, power line coupled between a first connector and a second connector , the power line configured to conduct power line communication, PLC, signals, wherein the first and second connectors are Twinax connectors, having two co-axial conductors, and are impedance matched for PLC communication; a PLC-to-Ethernet converter configured to convert between the PLC signals and Ethernet signals; a first transformer coupled between the PLC-to-Ethernet converter and a third connector , the first transformer configured to condition the Ethernet signals for power-over-Ethernet transmission; a power sourcing circuit coupled to the power line via a first diode and a second diode acting together as a rectifier and the power sourcing circuit being configured to provide power to the first transformer ; and a second transformer coupled between the power line and the PLC-to-Ethernet converter , wherein the second transformer is capacitively coupled to the power line . a direct current, DC, power line coupled between a first connector and a second connector , the power line configured to conduct power line communication, PLC, signals, wherein the first and second connectors are Twinax connectors, having two co-axial conductors, and are impedance matched for PLC communication; a PLC-to-Ethernet converter configured to convert between the PLC signals and Ethernet signals; a first transformer coupled between the PLC-to-Ethernet converter and a third connector , the first transformer configured to condition the Ethernet signals for power-over-Ethernet transmission; a power sourcing circuit coupled to the power line via a first diode and a second diode acting together as a rectifier and the power sourcing circuit being configured to provide power to the first transformer ; and a second transformer coupled between the power line and the PLC-to-Ethernet converter , wherein the second transformer is capacitively coupled to the power line .
A vision system for a vehicle comprising: a camera for capturing images within a field of view; a display device movably mounted relative to the vehicle for displaying a portion of the field of view of said camera ; a movement sensor for sensing movement of said display device ; and a processing circuit in communication with said movement sensor , said display device , and said camera for selecting the portion of the field of view to be displayed on said display device in response to movement of said display device as sensed by said movement sensor ; wherein said display device is disposed in a mirror housing of a rearview mirror assembly , wherein said movement sensor senses movement of said display device by sensing movement of said mirror housing , and wherein the vision system further comprises capacitive touch sensors at locations on a top and a bottom of said mirror housing . a camera for capturing images within a field of view; a display device movably mounted relative to the vehicle for displaying a portion of the field of view of said camera ; a movement sensor for sensing movement of said display device ; and a processing circuit in communication with said movement sensor , said display device , and said camera for selecting the portion of the field of view to be displayed on said display device in response to movement of said display device as sensed by said movement sensor ; wherein said display device is disposed in a mirror housing of a rearview mirror assembly , wherein said movement sensor senses movement of said display device by sensing movement of said mirror housing , and wherein the vision system further comprises capacitive touch sensors at locations on a top and a bottom of said mirror housing .
Wingless aircraft with multiple lift rotors , which are driven by electric motors and rotate about different rotor axes , wherein the aircraft comprises: at least one energy store for providing the electrical energy necessary to operate the lift rotors , at least one control device for actuating the lift rotors and for communicating with a ground station, and at least two camera devices for capturing a panoramic image, wherein a smallest spherical rotor envelope enclosing all the lift rotors has a greater volume than a smallest spherical camera envelope enclosing the camera lenses of all the camera devices , wherein the camera devices span a visual area, the visual area resulting from an intersection of fields of view of the camera devices , wherein the lift rotors are located outside the visual area, the visual area at least partially surrounding the aircraft , characterized in that a smallest spherical center point envelope enclosing all the lift rotor center points has a greater volume than the smallest spherical camera envelope . at least one energy store for providing the electrical energy necessary to operate the lift rotors , at least one control device for actuating the lift rotors and for communicating with a ground station, and at least two camera devices for capturing a panoramic image, wherein a smallest spherical rotor envelope enclosing all the lift rotors has a greater volume than a smallest spherical camera envelope enclosing the camera lenses of all the camera devices , wherein the camera devices span a visual area, the visual area resulting from an intersection of fields of view of the camera devices , wherein the lift rotors are located outside the visual area, the visual area at least partially surrounding the aircraft , characterized in that a smallest spherical center point envelope enclosing all the lift rotor center points has a greater volume than the smallest spherical camera envelope .
A staple cartridge , comprising: a plurality of staples ; and a cartridge body , comprising: a proximal end ; a distal end ; a tissue-contacting deck ; a plurality of staple cavities , wherein a said staple is positioned in each said staple cavity, and wherein each said staple cavity comprises a staple cavity opening; and a plurality of ridges extending from said tissue-contacting deck, characterized in that each said ridge extends along a path which extends across more than one staple cavity opening, and wherein each of the more than one staple cavity openings extends upwardly through the ridges. a plurality of staples ; and a cartridge body , comprising: a proximal end ; a distal end ; a tissue-contacting deck ; a plurality of staple cavities , wherein a said staple is positioned in each said staple cavity, and wherein each said staple cavity comprises a staple cavity opening; and a plurality of ridges extending from said tissue-contacting deck, characterized in that each said ridge extends along a path which extends across more than one staple cavity opening, and wherein each of the more than one staple cavity openings extends upwardly through the ridges. a proximal end ; a distal end ; a tissue-contacting deck ; a plurality of staple cavities , wherein a said staple is positioned in each said staple cavity, and wherein each said staple cavity comprises a staple cavity opening; and a plurality of ridges extending from said tissue-contacting deck, characterized in that each said ridge extends along a path which extends across more than one staple cavity opening, and wherein each of the more than one staple cavity openings extends upwardly through the ridges.