6 results about "Inorganic composition" patented technology

To provide a spherical inorganic composition suitable for use as a filler for encapsulants for semiconductor packages by accurately grasping the properties of voids present in particles of a spherical inorganic composition and improving the quality of the particles of the spherical inorganic composition.SOLUTION: In a spherical inorganic composition excluding silica alone, the average particle diameter by laser diffraction particle size distribution measurement of the spherical inorganic composition is 0.1 to 15 μm, particles of the spherical inorganic composition containing voids having a diameter of 5 μm or more are 50 particles / mm3 or less, and particles of the spherical inorganic composition containing voids having a diameter of 10 μm or more are 5 particles / mm3 or less.SELECTED DRAWING: None

Provided is a spherical inorganic composition that is suitable for a filler for a semiconductor package sealing material, and the like, as a result of improving the quality of particles of the spherical inorganic composition through accurate understanding of the properties of voids present in the particles of the spherical inorganic composition. In the spherical inorganic composition excluding elemental silica, the average particle size of the spherical inorganic composition as measured by laser diffraction particle size distribution measurement is 0.1-15 μm, and the number of particles of the spherical inorganic composition including voids having a diameter of at least 5 μm is at most 50 particles / mm3, and the number of particles of the spherical inorganic composition including voids having a diameter of at least 10 μm is at most 5 particles / mm3.

An inorganic composition article obtained by strengthening a crystallized glass, wherein the crystallized glass comprises one or more kinds selected from α-cristobalite and α-cristobalite solid solution as a main crystal phase, the crystallized glass comprises, by mass % in terms of oxide, a content of a SiO2 component of 50.0% to 75.0%, a content of a Li2O component of 3.0% to 10.0%, a content of an Al2O3 component of 5.0% or more and less than 15.0%, a content of a B2O3 component of more than 0% and 10.0% or less, a content of a P2O5 component of more than 0% and 10.0% or less, and a mass proportion SiO2 / (B2O3+Li2O) of 3.0 to 10.0, and the inorganic composition article has a compressive stress layer on the surface, and has a central tensile stress (CT) of 80 MPa to 160 MPa.

3D printing material in direct contact with edge of a glass core in IC packages to additively form a frame. Multiple such cores may be reconstituted into a panel that may then be built-up with routing metallization and assembled with IC die. Layers of printed material may be built up to form a frame with approximately the same thickness as the glass core and of any desired lateral width. The printed material may be an organic polymer or inorganic composition including metallics and ceramics. Beads of different material composition may be printed in succession to vary mechanical, electrical and / or thermal properties. A portion of the protective frame may be retained on an edge of the glass core when panels are singulated into package substrate units. Frame material may also be printed upon edges of glass-cored package units after their singulation.

To provide a method for producing inorganic composition powder by which inorganic composition powder having a small average particle diameter can be produced.SOLUTION: The method for producing the inorganic composition powder is provided. A solution or a dispersion of an inorganic substance is atomized, and the atomized solution or dispersion is introduced into a flame to synthesize an inorganic composition powder in a gas phase. The inorganic material may be a salt of at least one element selected from the group consisting of Si, Li, Ca, Al, Ba, K, Mg, Na, B, and P. For example, the concentration of the salt in the solution or the dispersion liquid is 5% by mass or more and 50% by mass or less.SELECTED DRAWING: Figure 1

To provide a novel soft magnetic material that is lower in density and has superior shapeability compared to existing soft magnetic materials. [Solution] Using hematite as the essential raw material and silica, alumina, and calcium oxide as secondary raw materials, the raw material mixture is adjusted in atomic fraction (%) to be i) 15% to 40%, ii) 0.1% to 21% aluminum, iii) 0.1% to 15% calcium, iv) the total of iron, silicon, aluminum, and calcium is 90% or more, and v) the difference between the total content of aluminum and calcium and the iron content is minus 6% or more. This raw material mixture is heated to approximately 1500°C to melt, held for approximately 1 hour, and then rapidly cooled to obtain a material with a density of 3.0 g / cm³. 3 The following, and with a mass magnetic susceptibility of 1.9 cm², 3 We were able to obtain a novel amorphous magnetic inorganic composition with a value of 1 / g or higher.