Abstract:
The present invention relates to a method for forming a via in a substrate and a substrate with a via. The method includes the following steps: (a) providing a substrate; (b) forming a groove on a first surface of the substrate; (c) forming a conductive metal on the groove so as to form a central groove; (d) forming an annular groove that surrounds the conductive metal; (e) forming an insulating material in the central groove and the annular; groove; and (f) removing part of the substrate to expose the conductive metal and the insulating material.
Abstract:
A semiconductor packaging structure having electromagnetic shielding function is disclosed, in which the packaging structure includes a carrier and a semiconductor substrate disposed thereon. The semiconductor substrate has a patterned passivation layer and a patterned metal layer disposed thereon, in which the patterned metal layer is electrically connected to at least a grounding pad of the carrier via a wire, whereby possessing the semiconductor packaging structure to have electromagnetic shielding function. A method for manufacturing a semiconductor packaging structure having electromagnetic shielding function is also disclosed in the present invention.
Abstract:
The present invention relates to a method for forming a via in a substrate and a substrate with a via. The method includes the following steps: (a) providing a substrate having a first surface and a second surface; (b) forming a groove that has a side wall and a bottom wall on the first surface of the substrate; (c) forming a conductive metal on the side wall and the bottom wall of the groove so as to form a central groove; (d) forming an annular groove that surrounds the conductive metal on the first surface of the substrate; (e) forming an insulating material in the central groove and the annular groove; and (f) removing part of the second surface of the substrate to expose the conductive metal and the insulating material.
Abstract:
The present invention relates to a semiconductor device package, comprising a carrier, a first semiconductor device, a second semiconductor device, a plurality of conductive elements, a pre-mold and a lid. The first semiconductor device is electrically connected to the carrier. The second semiconductor device is disposed above the first semiconductor device. The conductive elements are used for electrically connecting the second semiconductor device and the carrier. The pre-mold and the carrier form an accommodating space for accommodating the first semiconductor device, the second semiconductor device and the conductive elements. The lid is adhered to the pre-mold for covering the opening of the pre-mold. As a result, the pre-mold is formed by molding, the manufacture process of the present invention is simpler than that of the conventional semiconductor device package.
Abstract:
A semiconductor packaging structure having electromagnetic shielding function is disclosed, in which the packaging structure includes a carrier and a semiconductor substrate disposed thereon. The semiconductor substrate has a patterned passivation layer and a patterned metal layer disposed thereon, in which the patterned metal layer is electrically connected to at least a grounding pad of the carrier via a wire, whereby possessing the semiconductor packaging structure to have electromagnetic shielding function. A method for manufacturing a semiconductor packaging structure having electromagnetic shielding function is also disclosed in the present invention.
Abstract:
A semiconductor package structure and the applications thereof and the manufacturing method are disclosed. The semiconductor package structure includes a carrier, a semiconductor device, a first package body, a lid and a second package body. The semiconductor device is electrically connected to the carrier via a first conductive element. The first package body is molded on the carrier to surround the semiconductor device. The lid is disposed on top of the first package body and has at least one protrusion. The second package body is molded on the carrier to encapsulate the protrusion, whereby the protrusion is embedded within the second package body thereby locking the lid in place against the first package body.
Abstract:
The present invention provides a temporary carrier bonding and detaching process. A first surface of a semiconductor wafer is mounted on a first carrier by a first adhesive layer, and a first isolation coating disposed between the first adhesive layer and the first carrier. Then, a second carrier is mounted on the second surface of the semiconductor wafer. The first carrier is detached. Then, the first surface of the semiconductor wafer is mounted on a film frame. The second carrier is detached. The method of the present invention utilizes the second carrier to support and protect the semiconductor wafer, after which the first carrier is detached. Therefore, the semiconductor wafer will not be damaged or broken, thereby improving the yield rate of the semiconductor process. Furthermore, the simplicity of the detaching method for the first carrier allows for improvement in efficiency of the semiconductor process.
Abstract:
A method for encapsulating sensor chips is disclosed. A protective layer is formed on an active surface of a sensor chip, and at least covers a sensor region in the active surface. The active surface of the sensor chip faces to a temporary carrier, so that the protective layer is attached to the temporary carrier. An encapsulant is formed on the temporary carrier to cover a back surface and side surfaces of the sensor chip. A plurality of electrically connecting components are formed in the encapsulant to electrically connect a plurality of bonding pads of the sensor chip, and then the protective layer is removed to expose the sensor region. The coverage of the protective layer is used to avoid pollution on the sensor region during encapsulating, thereby, especially in a wafer level packaging, making the package profile neat, tidy and smaller in size, and promoting production efficiency.
Abstract:
A wafer level package for image sensor components includes an image sensor chip and several metal pillars. Several vias formed in the image sensor chip are aligned with several bonding pads. The metal pillars are formed in the vias. First ends of the metal pillars are bonded to the bonding pads. Second ends of the metal pillars protrude from a back surface of the image sensor chip. The length of the metal pillars is greater than the thickness of the image sensor chip. The image sensor chip is mounted to a printed circuit board through the metal pillars formed in the vias instead of wire bonding or redistribution line (RDL) process. There is no need to dispensing underfil between the image sensor chip and the printed circuit board to protect the metal pillars.
Abstract:
A method of fabricating wafer level package is provided. First, a wafer having a front and a rear surfaces is provided. Several fosses are then formed on the front surface of the wafer. Next, an insulative layer is formed on a surface of each fosse; a conductive layer is then formed on part of the. front surface of the wafer and the insulative layer of each fosse. A solder layer is formed on the conductive layer above each fosse. Afterward, a first substrate is attached to the front surface. Several holes are formed on the rear surface, and the holes baring the solder layer are positioned corresponding to the fosses. Then, a second substrate is attached to the rear surface of the wafer. The second substrate has several conductive pillars correspondingly inserted into the holes for connecting the solder layers. Next, the conductive structures are formed on the second substrate.