Abstract:
An electrical component with two conductive leads and two conductive wires are held within a housing. Each lead is inserted into a housing hole to make electrical contact with a wire conductor. Multiple additional electrical components (which may or may not be LEDs) can be held in similar housings attached their own pairs of wires. A PCB assembly can be attached to hold one or more such assemblies. A resilient PCB housing holds a PCB by an interference fit while conductive wires are inserted into its wire cavity so that exposed portions of conductive wires make electrical contact with electrical traces of the PCB which is biased by wire insulation. Two conductors can be held by the PCB housing which are forced into electrical contact with the PCB when it is inserted into the resilient PCB housing which then biases such contacts. Insertion of a battery into the PCB housing creates an interference fit and causes each of the conductors (which can have a u shape before assembly and then have one or more leads bend over during assembly) to make mechanical and electrical contact with the battery. A switch can also be held by a switch interference fit with the resilient PCB housing such that its leads are biased against the PCB by the resilient PCB housing. The entire assembly is solder-less and can have multiple strings of two or more LEDs, and other electrical components, energized by the battery.
Abstract:
Described herein are multi-functional composite materials containing energy storage assemblies that can be significantly resistant to tension/compression stress. The energy storage assemblies can contain at least one energy storage layer that contains an insulating layer having a plurality of openings arranged in a spaced apart manner, and a plurality of energy storage devices, each energy storage device being contained within one of the openings. The energy storage devices can be electrically connected to one another. The energy storage layer can contain a support material upon which electrical connections are formed. One or more energy storage layers can be disposed between two or more stress carrying layers to form an energy storage assembly that can have significant resistance to tension/compression stress. Energy storage devices suitable for use in the energy storage assemblies can include, for example, batteries, capacitors and/or supercapacitors. Methods for producing the energy storage assemblies are also described.
Abstract:
Systems and methods are provided for battery cells including solid electrolytes. Solid electrolyte cells may be integrated with electronic devices. For example, a solid electrolyte cell may be integrated with a metal surface of a circuit board or an electrically conductive surface of a chassis. Surface-mountable solid electrolyte cells may be electrically coupled to circuit traces using, for example, a reflow soldering process.
Abstract:
A device mounting board comprises: a heat dissipating substrate formed of a material containing at least one metal material selected from a group including Al, Mg, and Ti; an insulting resin layer laminated on the heat dissipating substrate; and a wiring layer laminated on the insulating resin layer, and on which a power module is to be mounted. The heat dissipating substrate comprises a random porous layer arranged such that it faces the insulating resin layer, and having cavities elongated in respective random directions.
Abstract:
An electronic device includes a printed circuit board (PCB) with a first conductive element and having a first side opposite a second side. The electronic device includes a wall disposed on the first side of the PCB and having a channel through the wall. The electronic device includes a supporting structure disposed on the second side of the PCB. The electronic device includes a connector which includes an electrically conductive based configured to provide a conductive path between the first conductive element and the channel and also includes a spring structure disposed between the electrically conductive base and the supporting structure.
Abstract:
The disclosure provides a cross-linkable polymer composition, a core layer for an information carrying card comprising such cross-linked composition, resulting information carrying card, and methods of making the same. A crosslinkable polymer composition comprises a curable base polymer resin in a liquid or paste form, and a particulate thermoplastic filler. The base polymer resin is selected from the group consisting of urethane acrylate, silicone acrylate, epoxy acrylate, urethane, acrylate, silicone and epoxy. The particulate thermoplastic filler may be polyolefin, polyvinyl chloride (PVC), a copolymer of vinyl chloride and at least another monomer, or a polyester such as polyethylene terephthalate (PET), a compound or blend thereof.
Abstract:
According to one embodiment, a circuit board device includes a flexible printed circuit board configured to be bendable and including a first mounting surface and a second mounting surface opposed to the first mounting surface, at least one electronic component mounted on the first mounting surface of the flexible printed circuit board, and a plurality of bent portions on both sides of the electronic component near the electronic component, the bent portions being formed by folding a part of the flexible printed circuit board.
Abstract:
The oxide includes indium, an element M, and zinc. The oxide includes a first region and a second region. A peak of diffraction intensity derived from a crystal structure is not observed in the first region using X-ray. An electron diffraction pattern including a third region with high luminance in a ring pattern and a spot in the third region is observed by transmission of an electron beam having a probe diameter of 0.3 nm or more and 3 nm or less through the second region. The oxide includes a crystal part when being observed with a transmission electron microscope.
Abstract:
A battery built-in board includes a battery component comprising a battery and an insulation part covering the battery, a first insulation layer in which the battery component is placed, and a second insulation layer formed on the first insulation layer and covering the battery component. Rigidity of the insulation part is lower than that of the first insulation layer and the second insulation layer.
Abstract:
Described herein are multi-functional composite materials containing energy storage assemblies that can be significantly resistant to tension/compression stress. The energy storage assemblies can contain at least one energy storage layer that contains an insulating layer having a plurality of openings arranged in a spaced apart manner, and a plurality of energy storage devices, each energy storage device being contained within one of the openings. The energy storage devices can be electrically connected to one another. The energy storage layer can contain a support material upon which electrical connections are formed. One or more energy storage layers can be disposed between two or more stress carrying layers to form an energy storage assembly that can have significant resistance to tension/compression stress. Energy storage devices suitable for use in the energy storage assemblies can include, for example, batteries, capacitors and/or supercapacitors. Methods for producing the energy storage assemblies are also described.