Abstract:
The disclosure discloses a packaging module of a power converting circuit and a method for manufacturing the same. The packaging module of the power converting circuit includes a substrate, a molding layer and a plurality of pins. A power device is assembled at the substrate, a plurality of pins electrically are coupled to the power device, the molding layer covers the surface of the substrate with the power device, and at least a contact surface of the pins configured to electrically connect an external circuit is exposed. The molding layer includes a main hat-body part and a hat-brim part, the main hat-body part and the hat-brim part form a hat-shaped molding layer, and the hat-brim part is used to increase a creepage distance between the contact surfaces of the pins located at the top of the molding layer and the bottom of the substrate.
Abstract:
The present disclosure relates to a power module and a manufacturing method thereof. The power module includes: a group of switch elements, a molding part and a connector. The group of switch elements includes at least one pair of switch elements. The molding part molds the group of switch elements. The connector includes a signal terminal and a power terminal respectively electrically connected to the signal end and power end of the group of switch elements, and both fanned out from the molding part. The power terminal includes a positive power terminal, a negative power terminal and an output power terminal. The positive power terminal and the negative power terminal are respectively a first metal layer and a second metal layer which are at least partially stacked, and an insulating layer is disposed between the first metal layer and the second metal layer.
Abstract:
A method for manufacturing a stack structure comprises: providing a lead frame having a metal frame, at least two metal plate portions and a plurality of connection ribs, the connection ribs each comprises a first end, a second end and a connection portion; directly mounting electronic components for constructing two modules on the metal plate portions; packaging the electronic components of the first module, the first ends of the metal connection components which are electrically connected to the first module and the first ends of the part of the connection ribs which are electrically connected to the first module are packaged therein; removing the metal frame and part or whole of the connection ribs, the remaining connection ribs forms pins; and bending the metal connection component so that the two modules connected by the metal connection components are stacked one upon the other, to form the stack structure.
Abstract:
The present invention provides a power module and a manufacturing method thereof. The power module includes a carrier board and a lead component stacked relative to the carrier board. The lead component includes an initial plane, plural first pins and plural second pin. The initial plane includes a vertical projection overlapping with the carrier board. The first pins are electrically connected to the carrier board and vertical to the initial plane. The second pins are electrically connected to the carrier board and vertical to the initial plane. An isolation gap is disposed in the initial plane and located between the first pins and the second pins. The initial plane is separated into a first plane and a second plane by the isolation gap, so as to electrically isolate the first pins and the second pins from each other.
Abstract:
A power module and a thermal interface structure are provided herein. The thermal interface structure includes: a base and a plurality of filler particles distributed in the base. When the filler particles are under pressure, at least a part of the filler particles are deformed, and at least two adjacent filler particles partially contact with each other to form a heat-conducting path for transferring heat.
Abstract:
There is provided a magnetic core component and the gap control method thereof. The magnetic core component includes a first magnetic component, a second magnetic component and a first gap control structure disposed therebetween. The first gap control structure includes thixotropic material and is applied on the first magnetic component and is cured, the second magnetic component is disposed on the cured first gap control structure, and a gap between the first magnetic component and the second magnetic component is controlled by an effective height of the first gap control structure. The gap control structure has minimum variability after it is cured, and its effective height can be always kept at a required gap height.