Abstract:
A 3D stacked package structure includes a first unit, a molding unit, a conductive unit and a second unit. The first unit includes a first substrate and at least one first electronic component, and the first substrate has at least one runner and at least one first conductive pad. The molding unit includes a top portion, a frame, and at least one connection connected between the top portion and the frame. The conductive unit includes at least one conductor passing through the frame and electrically connected to the first conductive pad. Therefore, the first unit can be stacked on the second unit through the frame of the molding unit, and the first unit can be electrically connected to the second unit through the conductor of the conductive unit.
Abstract:
An electronic component incorporated substrate includes a first substrate and a second substrate electrically connected to each other by a spacer unit. An electronic component is mounted on the first substrate and arranged between the first substrate and the second substrate. A first encapsulating resin is formed between the first substrate and the second substrate to encapsulate the electronic component. A second encapsulating resin is formed on a first surface of the first encapsulating resin to fill a space between the first encapsulating resin and the second substrate. The spacer unit includes a stacked structure of a first solder ball, a metal post, and a second solder ball stacked in a stacking direction of the first substrate and the second substrate.
Abstract:
A motor control unit includes two circuit boards accommodated in a board housing, and a connection holder placed on an outer face of the board housing. The connection holder includes external connection terminals and connection pins. Each one of the circuit boards is provided with multiple through-holes for receiving the connection pins, each of which is formed of an external connection pin and an internal connection pin. The connection holder and the circuit boards are placed such that the connection pins penetrate the through-holes of the circuit boards respectively.
Abstract:
An electric circuit apparatus includes: a first-circuit board that includes a first-through-hole, and a first-electrode disposed on a front side of the first-circuit-board; a second-circuit-board that is disposed on a back side of the first-circuit-board, the second-circuit-board including on the front side of the second-circuit-board a second-electrode associated with the first-through-hole; a semiconductor device that is disposed on the front side of the first-circuit-board, the semiconductor device including on a back side a third-electrode-associated with the first-electrode, and a fourth-electrode-associated with the second-electrode; a first-bonding-material that bonds the first-electrode and the-third-electrode; a second-bonding-material that bonds the second-electrode and the fourth-electrode while passing through the first-through-hole; and a support body that is disposed between the first-electrode and the second-circuit-board and that supports the first-circuit-board.
Abstract:
A connection pin for mounting in a through-hole provided in a component carrier of an electronic assembly, the connection pin comprising an anchoring part adapted for insertion into said through-hole, a contact part adapted to extend outside said through-hole, and a flange part adapted to abut against said component carrier and located between said anchoring part and said contact part. The connection pin is provided with an internal cavity, which is provided with an outer opening at a free end of the anchoring part. The contact part is provided with a protruding elongated interconnection member at a free end thereof, and the respective shapes of the interconnection member and the internal cavity are such that the interconnection member is adapted for insertion into a corresponding internal cavity of another similar connection pin. A method for producing an electronic assembly with stackable modules is also disclosed.
Abstract:
The disclosed embodiments relate to a system that facilitates thermal conductance in a system that includes a module comprising a circuit board with integrated circuits, such as a solid-state drive. A thermal-coupling material between one side of the circuit board and an adjacent baseplate is used to increase thermal conduction between the circuit board and the baseplate. Furthermore, the module may include another thermal-coupling material between the baseplate and a housing that at least in part surrounds the circuit board, thereby increasing thermal conduction between the baseplate and the housing. In these ways, the baseplate and/or the housing may be used as a heat-transfer surfaces or heat spreaders that reduce hotspots associated with operation of the integrated circuits.
Abstract:
To provide a printed board fixing device capable of reducing the thickness and size with a simple structure. The printed board fixing device includes a coupling member which two-folds a flex rigid printed board that includes one and the other rigid printed boards via a flexible part and mutually couples and fixes the one and the other boards. The length of the coupling member is set to be within a range of entire thickness including the one and the other rigid printed boards. The coupling member is provided at two points on the one and the other rigid printed boards.
Abstract:
In at least one embodiment, a vehicle power module comprises a first printed circuit board (PCB) including a first plurality of electrical components for providing a first voltage and a second voltage. The vehicle power module further comprises a second PCB including a second plurality of electrical components, the second PCB being spaced away from the first printed circuit board and a first connector assembly being coupled to the first PCB and to the second PCB for providing the first voltage to the second PCB. The vehicle power module further comprises a second connector assembly being coupled to the first PCB and to the second PCB for providing the second voltage to the second PCB. The first connector assembly provides the first voltage of up to 14V and the second connector assembly provides the second voltage of 200V or greater.
Abstract:
A method for forming a flexible sheet of LED light emitters includes forming a micro lens sheet having a plurality of micro lenses, forming a phosphor sheet including a wave-length converting material, forming a flexible circuit sheet, forming a ceramic substrate sheet including a plurality of LED light emitters, and forming a support substrate including a thermally conductive material. The method also includes attaching the above sheets to form a stack including, from top to bottom, the micro lens sheet, the phosphor sheet, the flexible circuit sheet, the ceramic substrate sheet, and the support substrate.
Abstract:
A motherboard is disclosed, which allows an expansion circuit board to be electrically connected to it. The motherboard includes a primary circuit board and an adapter component. The primary circuit board includes an expansion slot. The adapter component is connected to the expansion slot. The adapter component is used for being electrically connected to the expansion circuit board, such that the primary circuit board and the expansion circuit board can perform signal transmission via the adapter component. The expansion circuit board and the primary circuit board are not located on the same plane.