Flexible LED assemblies are described. More particularly, flexible LED assemblies having substrates with conductive features positioned on or in the substrate, and layers of ceramic positioned over exposed portions of the substrate to protect against UV degradation, as well as methods of making such assembles, are described.

A method of manufacturing a constituent for a component carrier is disclosed. The method includes providing an electrically conductive structure, forming a highly thermally conductive and electrically insulating or semiconductive structure on the electrically conductive structure, and subsequently, attaching a thermally conductive and electrically insulating structure, having a lower thermal conductivity than the highly thermally conductive and electrically insulating or semiconductive structure, on an exposed surface of the highly thermally conductive and electrically insulating or semiconductive structure.

In a thin-film capacitor, an electrode terminal layer is divided into a plurality of parts by a penetration portion, and includes a frame portion as one divided part. The frame portion is disposed along an outer edge of the electrode terminal layer when viewed from the bottom surface side of the electrode terminal layer, and the frame portion can hinder deformation of the electrode terminal layer stretching or warping in a thickness direction or an in-plane direction, whereby such deformation can be prevented. Accordingly, in the thin-film capacitor, the electrode terminal layer is not likely to be deformed and an improvement in strength thereof is achieved.

A wiring board includes an insulator layer, a wiring layer including a wiring pattern and formed on one surface of the insulator layer, an inorganic layer covering a region of the one surface of the insulator layer not formed with the wiring layer, and covering an upper surface and side surfaces of the wiring pattern along a concavo-convex of the wiring pattern, and a shield part covering the wiring pattern via the inorganic layer.

A device includes a printed circuit board assembly having a printed circuit board and one or more electronic components disposed on the printed circuit board, and a nanofilm disposed on the printed circuit board assembly. The nanofilm includes an inner coating in contact with the printed circuit board assembly, the inner coating including metal oxide nanoparticles having a particle diameter in a range of 5 nm to 100 nm; and an outer coating in contact with the inner coating, the outer coating including silicon dioxide nanoparticles having a particle diameter in a range of 0.1 nm to 10 nm.

A circuit board includes a board, an interface formed on the board, a discharge wiring pair formed on the board and having a first discharge wire connected to the interface and a second discharge wire having a second tip portion facing a first tip portion of the first discharge wire with an interval, an electronic component installed in a signal path connected to the interface, a ground path connected to the second discharge wire, and a discharge induction unit configured to induce discharge between the discharge wiring pair by making a current having a frequency based on a voltage waveform of static electricity to be discharged flow more easily in the discharge wiring pair than in the signal path.

A backplane and a glass-based circuit board. The backplane includes: a base substrate and a plurality of light-emitting units, arranged in an array on the base substrate. Each of the light-emitting units includes at least one light-emitting sub-unit; the light-emitting sub-unit includes a connection line and a plurality of light-emitting diode chips connected with the connection line, and the light-emitting diode chips are located on a side of the connection line away from the base substrate. The connection line comprises a first connection portion, a second connection portion and a third connection portion; in each of the light-emitting sub-units, the third connection portion comprises a plurality of connection sub-portions, each of the connection sub-portions comprise at least one electrical contact point; the electrical contact points at adjacent ends of adjacent connection sub-portions constitute an electrical contact point pair.

A flexible display device that can suppress spread of cracks of an inorganic layer is provided. A flexible display device includes a flexible substrate including a display area and a periphery surrounding the display area, an inorganic layer formed on the flexible substrate, a display unit formed on the display area, and a thin film encapsulation layer covering the display unit. The inorganic layer includes an opening disposed on a periphery between edges of the flexible substrate and the thin film encapsulation layer.

A deposition method includes depositing on a surface of a substrate a stack by an ALD (atomic layer deposition). Also provided is an ALD reactor for carrying out the method and products obtained using the deposition method.

An electronic device and manufacturing method thereof are disclosed. The manufacturing method of the electronic device comprises following steps: forming at least a thin-film conductive line on the substrate by a thin-film process; forming at least an electrical connection pad on the substrate by a printing process, wherein the electrical connection pad is electrically connected with the thin-film conductive line; and disposing at least an electronic element on the substrate, wherein the electronic element is electrically connected with the thin-film conductive line through the electrical connection pad. The electronic device has a lower manufacturing cost and a higher component configuration density, and the production yield and reliability of the electronic device are improved by the configuration of the electrical connection pad.