Abstract: A wiring board manufacturing method including a step A of forming a laser-modified portion in a glass substrate by applying laser light to the glass substrate from a first surface toward an opposite surface thereof; a step B of forming, on the first surface of the glass substrate, a first surface wiring layer including a hydrofluoric acid resistant metal film and a copper layer; a step C of etching a surface of the glass substrate opposite to the first surface to form a through via in the laser-modified portion and form a second surface of the glass substrate, the second surface being an opposite surface to the first surface; a through via treatment step D of removing an etching residue of glass adhered to the hydrofluoric acid resistant metal film; and a step E of forming a through electrode in the through via.

Abstract: A method for manufacturing a wiring board, including a step A of forming a laser-modified portion in a glass substrate by applying laser light to the glass substrate from a first surface to an opposite surface of the glass substrate; a step B of forming a first surface wiring layer including a MIM capacitor on the first surface of the glass substrate; a step C of performing an etching process on a surface of the glass substrate opposite to the first surface to form a through via in the laser-modified portion and form a second surface of the glass substrate opposite to the first surface; and a step D of forming a through electrode in the through via and forming, on the second surface, a second surface wiring layer that is connected to the first surface wiring layer via the through electrode.

Abstract: A wiring board includes a first wiring layer disposed on the first adhesion layer; and a second wiring layer disposed on the second adhesion layer, wherein a proportion of copper remaining in the first wiring layer is represented by C=B/A (%), where A is a total area of the first wiring layer, B is an area of copper in the first wiring layer, and C is a remaining copper ratio C defined as the proportion of copper remaining in the first wiring layer, and wherein when the remaining copper ratio C is set to 70 to 100%, the first adhesion layer is comprised of at least one material having a first predetermined Young's modulus, and the first wiring layer is comprised of at least one material having a second predetermined Young's modulus, the first predetermined Young's modulus being 0.1 to 0.85 times the second predetermined Young's modulus.

Abstract: An electrode active material for lithium-ion secondary batteries that has a sufficiently high initial capacity, improved charge-and-discharge cycle characteristics, and improved coulombic efficiency in the mid-term charge-and-discharge cycles can be obtained by a phosphorus-containing low-crystalline vanadium sulfide comprising vanadium, phosphorus, and sulfur as constituent elements, the composition ratio of the phosphorus to the vanadium (P/V) being 0.1 to 1.0 in terms of the molar ratio, the composition ratio of the sulfur to the vanadium (S/V) being 4.00 to 10.00 in terms of the molar ratio.

Abstract: A package substrate that prevents breakage of a core substrate is provided. A package substrate includes a core substrate made of a brittle material, at least one insulating layer formed on one surface or both surfaces of the core substrate, and one or more wiring layers formed on the insulating layer and/or in the insulating layer, the core substrate being exposed from an outer peripheral portion of the insulating layer, and the insulating layer being chamfered.

Abstract: According to one embodiment, a tablet printing apparatus includes: a conveyor belt that includes a suction hole connected to a suction chamber, and conveys a tablet while sucking the tablet to the suction hole; an ink jet print head that has a nozzle surface where a nozzle is formed, and is located above the conveyor belt such that the nozzle surface faces the conveyor belt, and performs printing on the tablet conveyed by the conveyor belt; and a control plate that is located on the upstream side of the print head in the conveying direction of the tablet between the conveyor belt and the height position of the nozzle surface of the print head, and controls an airflow generated between the conveyor belt and the print head.

Abstract: According to one embodiment, a tablet printing apparatus includes: a conveyor belt including a suction hole to suck a tablet; and an ink jet print head configured to perform printing on the tablet; wherein the conveyor belt further includes a plurality of protrusions formed around the suction hole and configured to support the tablet in contact with the tablet, and a recess formed between the protrusions and communicated with the suction hole, each of the protrusions has a bottom surface, an upper surface, area of which is smaller than that of the bottom surface, and a side surface having an inclined surface, the protrusions support the tablet such that a gap is formed between a surface of the tablet on conveyor belt side and the suction hole, and a suction force is applied to the gap and space of the recess through the suction hole to suck the tablet.

Abstract: According to one embodiment, a tablet printing apparatus includes: a conveyor belt including a suction hole to suck a tablet; and an ink jet print head configured to perform printing on the tablet; wherein the conveyor belt further includes a plurality of protrusions formed around the suction hole and configured to support the tablet in contact with the tablet, and a recess formed between the protrusions and communicated with the suction hole, each of the protrusions has a bottom surface, an upper surface, area of which is smaller than that of the bottom surface, and a side surface having an inclined surface, the protrusions support the tablet such that a gap is formed between a surface of the tablet on conveyor belt side and the suction hole, and a suction force is applied to the gap and space of the recess through the suction hole to suck the tablet.

Abstract: According to one embodiment, a tablet printing apparatus includes: a conveyor belt that includes a suction hole connected to a suction chamber, and conveys a tablet while sucking the tablet to the suction hole; an ink jet print head that has a nozzle surface where a nozzle is formed, and is located above the conveyor belt such that the nozzle surface faces the conveyor belt, and performs printing on the tablet conveyed by the conveyor belt; and a control plate that is located on the upstream side of the print head in the conveying direction of the tablet between the conveyor belt and the height position of the nozzle surface of the print head, and controls an airflow generated between the conveyor belt and the print head.