Abstract:
A barrier film for an electronic device includes: a resin film; an adsorption layer disposed on a side of the resin film and including an inorganic material, which is electrostatically chargeable with a positive charge or a negative charge and having higher hydrophilicity than a surface of the resin film; and a stacked layer disposed on a side of the adsorption layer and including a plate-shaped particle layer including an inorganic plate-shaped particle, which is electrostatically chargeable with a positive charge or a negative charge, and a binder layer including a binder particle, which is electrostatically chargeable with a positive charge or a negative charge, where the plate-shaped particle layer and binder layer are alternately stacked.
Abstract:
A barrier film for an electronic device includes: a resin film; an adsorption layer disposed on a side of the resin film and including an inorganic material, which is electrostatically chargeable with a positive charge or a negative charge and having higher hydrophilicity than a surface of the resin film; and a stacked layer disposed on a side of the adsorption layer and including a plate-shaped particle layer including an inorganic plate-shaped particle, which is electrostatically chargeable with a positive charge or a negative charge, and a binder layer including a binder particle, which is electrostatically chargeable with a positive charge or a negative charge, where the plate-shaped particle layer and binder layer are alternately stacked.
Abstract:
In a manufacturing method for a sintered body, a mold device including a die, first and second punches, first and second spacers, first and second rams, and a plurality of thermal resistors is used. The manufacturing method includes an operation of loading raw material powder into a cavity of the die and then sintering the raw material powder, while pressing and molding the raw material powder in the uniaxial direction using the first and second punches, to form a sintered body and an operation of cooling the formed sintered body. In the operation of cooling the formed sintered body, an acoustic emission (AE) waveform is detected from the formed sintered body, and it is determined whether a crack has occurred in the formed sintered body using the detected AE waveform.
Abstract:
Example embodiments relate to a gas-adsorbing material capable of reducing the generation amount of combustible gas without deteriorating gas-adsorbing performance, and a vacuum insulation material including the gas-adsorbing material. The gas-adsorbing material may include a metal selected from at least one of Li, V, Zr, or an alloy including the same, which adsorbs a nitrogen gas and is inactivated by moisture as a nitrogen adsorbing agent, and an additive added to the metal. The metal is attached on the particle surface of the additive. The metal may be an alloy including Li and an alkaline-earth metal, for example, Ba—Li alloy. The additive absorbs moisture, and is selected from at least one of an inorganic oxide, a transition metal, an oxide of a transition metal, an alloy including a transition metal, and a mixture including a transition metal.
Abstract:
A laminated structure includes a polymer layer comprising at least one layer, a gas barrier layer which has thermal resistance of greater than or equal to about 650 degrees Kelvin per watt and a Young's modulus of greater than or equal to about 100 gigapascals, and a position of a neutral axis represented by the following Equation 1 is in the gas barrier layer. y = ∑ i = 1 n ( Ei · Si ) ∑ i = 1 n ( Ei · Ai ) ( Equation 1 ) In Equation 1, y denotes a distance from the top surface of a side compressed in bending to the neutral axis, Ei denotes a Young's modulus of the i-th layer, Si denotes a geometrical moment of area of the i-th layer, Ai denotes a cross-sectional area of the i-th layer, and n denotes a number of layers for the laminated structure, which is an integer of greater than or equal to 5.
Abstract:
A vacuum insulation material including: a core material; and a gas adsorbing agent, wherein the core material and the gas absorbing agent are interposed between a pair of gas barrier materials, wherein at least one of the pair of gas barrier materials includes a quasicrystal metal layer including a quasicrystal metal. The vacuum insulation material may reduce the heat bridge while maintaining high gas barrier properties.
Abstract:
Provided are a sintered material having high corrosion resistance, a method of manufacturing the sintered material, a member for a semiconductor manufacturing apparatus, a method of manufacturing a member for a semiconductor manufacturing apparatus, a semiconductor manufacturing apparatus, and a method of manufacturing a semiconductor manufacturing apparatus. The sintered material according to an embodiment includes 50 mass% or more of yttrium oxyfluoride, has a relative density of 97.0% or more, and has a Vickers hardness of 5.0 GPa or more. The method of manufacturing a sintered material according to an embodiment includes forming a molded body including yttrium oxyfluoride powder having a particle size of 0.3 µm or less, and sintering the molded body under an atmospheric pressure at a temperature of 800° C. or less.
Abstract:
Described is an adsorbent, a vacuum heat insulating material having the same and a refrigerator, which are capable of adsorbing a target material in a reduced pressure environment. A refrigerator includes an outer casing forming an exterior, an inner casing provided inside the outer casing and forming a storage chamber and a vacuum heat insulating material positioned between the outer casing and the inner casing, and including an adsorbent that adsorbs a heat transfer medium. The adsorbent includes a first adsorption component provided to adsorb oxygen, and including a transition metal oxide having an oxygen deficiency structure, and a second adsorption component provided to adsorb moisture.
Abstract:
A laminated structure includes a polymer layer comprising at least one layer, a gas barrier layer which has thermal resistance of greater than or equal to about 650 degrees Kelvin per watt and a Young's modulus of greater than or equal to about 100 gigapascals, and a position of a neutral axis represented by the following Equation 1 is in the gas barrier layer. y = ∑ i = 1 n ( Ei · Si ) ∑ i = 1 n ( Ei · Ai ) ( Equation 1 ) In Equation 1, y denotes a distance from the top surface of a side compressed in bending to the neutral axis, Ei denotes a Young's modulus of the i-th layer, Si denotes a geometrical moment of area of the i-th layer, Ai denotes a cross-sectional area of the i-th layer, and n denotes a number of layers for the laminated structure, which is an integer of greater than or equal to 5.
Abstract:
A vacuum insulation material includes a pair of gas barrier exterior materials, a core material including a cellulose structure having porosity of greater than or equal to about 80% under reduced pressure of about 1 Pa, where the cellulose structure has a unit length of greater than or equal to about 1 μm and less than or equal to about 5 mm in the heat-insulation direction, and the method of manufacturing the same, and a gas adsorption agent, where the core material and the gas adsorption agent are interposed between the pair of gas barrier exterior materials and sealed inside of the pair of gas barrier exterior materials under reduced pressure.