Abstract: A filter radio frequency module packaging structure and a method for manufacturing same is disclosed. A first filter chip of the filter radio frequency module packaging structure comprises a chip main body and a wall structure. The wall structure, the functional surface, and a substrate together define a closed cavity, or the wall structure and the functional surface together define a closed cavity. An encapsulation material wraps the first filter chip.

Abstract: Disclosed is a method of manufacturing a chiplet-fine-interconnection-package structure, comprising: mounting at least two chips on a first side surface of a substrate and preparing a temporary bonding layer on the chips, preparing a plastic package layer on a second side surface of the substrate, wherein the substrate is prepared with microvias to allow plastic package materials to flow from the microvias into an area between the first side surface of the substrate and the temporary bonding layer to prepare the plastic package layer; releasing the temporary bonding layer, and bonding a silicon bridge structure on the first pin-arrays of the two adjacent chips. The solution provided by the present invention makes it unnecessary to remove the substrate in the subsequent process and to perform grinding and thinning process on the corresponding position of the plastic package layer, thus simplifying the packaging process steps and reducing the packaging cost.

Abstract: A fan-out package structure and a fabricating method therefor are provided. The structure includes an encapsulation layer; an antenna RF module assembly and electronic component(s) embedded in the encapsulation layer; a first rewiring layer on a surface of a first side of the encapsulation layer, electrically connected to at least part of the pins of the assembly and to at least part of the pins of the electronic component(s); a second rewiring layer on a surface of a second side of the encapsulation layer, electrically connected to the encapsulation layer-interconnection conductive pillars and to the conductive solder balls/bumps; and conductive solder balls/bumps on a side of the second rewiring layer away from the encapsulation layer. The assembly includes a RF substrate, and an antenna array and RF device(s) arranged thereon. The assembly is embedded in the first side. Encapsulation-layer interconnection conductive pillars are formed in the encapsulation layer.

Abstract: A multi-chip interconnection package structure with a heat dissipation plate and a preparation method thereof are provided. The multi-chip interconnection package structure with a heat dissipation plate includes a fine circuit layer, at least one die, a heat dissipation plate, a plastic package body, and a package circuit layer, the heat dissipation plate is provided on the fine circuit layer, and is mounted on a side of the die away from the fine circuit layer, the plastic package body wraps the die and the heat dissipation plate, and the package circuit layer is provided on the plastic package body.

Abstract: Disclosed are a method for manufacturing a carrier structure suitable for chiplet fine lines and a carrier structure. The method includes: preparing a temporary bonding layer on a temporary carrier, and preparing a pin interconnection layer on the temporary bonding layer, preparing at least one fine line interconnection layer on the pin interconnection layer; preparing a core layer on the at least one fine line interconnection layer with a second electrically conductive structure interconnected with the at least one fine line interconnection layer and/or the pin interconnection layer, preparing at least one build-up layer connected to the fine line interconnection layer on the core layer, and de-bonding the temporary bonding layer to obtain the carrier structure. The solutions can prepare fine lines on a carrier structure and ensure the yield of fine line interconnection lines, thus improving the manufacturability of the fine lines, carrier structure and packaging structure.

Abstract: A multi-chip interconnection package structure with a heat dissipation plate and a preparation method thereof are provided. The multi-chip interconnection package structure with a heat dissipation plate includes a fine circuit layer, at least one die, a heat dissipation plate, a plastic package body, and a package circuit layer, the heat dissipation plate is provided on the fine circuit layer, and is mounted on a side of the die away from the fine circuit layer, the plastic package body wraps the die and the heat dissipation plate, and the package circuit layer is provided on the plastic package body.

Abstract: A filter radio frequency module packaging structure and a method for manufacturing same is disclosed. A first filter chip of the filter radio frequency module packaging structure comprises a chip main body and a wall structure. The wall structure, the functional surface, and a substrate together define a closed cavity, or the wall structure and the functional surface together define a closed cavity. An encapsulation material wraps the first filter chip.

Abstract: A packaging method and package structure for a filter chip. The packaging method includes providing a circuit substrate, covering a first surface of the circuit substrate and/or filter chip with adhesive material and forming recessed cavities or closed cavities in the adhesive material. The method further includes adhering the filter chip to the first surface of circuit substrate via the adhesive material, such that surface acoustic wave transmitting regions of the filter chip correspond to the recessed cavities or closed cavities in the adhesive material to form a gap therebetween, and encapsulating the filter chip with encapsulating material. The method further includes forming interconnecting holes extending from a second surface of the circuit substrate to pins of the filter chip, filling the interconnecting holes with conductive material, so that the conductive material is in electrical contact with a chip pin bump or pad metal of the filter chip, and forming external pin pads on the second surface.

Abstract: Provided are a chip fine line fan-out package structure and a manufacturing method therefor. The chip fine line fan-out package structure provided and the chip fine line fan-out package structure manufactured using the manufacturing method each include an inter-chip fine winding layer and a package winding layer. The line width and line spacing of the inter-chip fine winding layer are less than the line width and line spacing of the package winding layer, and therefore, a user can choose to use different package winding layers according to actual needs. Therefore, the chip fine line fan-out package structure and the package structure manufactured using the manufacturing method can meet the use demands of users in more scenarios.

Abstract: A fan-out type package and a preparation method of the fan-out type package are provided. The fan-out type package has one or more chips having same or different functions and each having a back surface mounted in a chip mounting region of the heat dissipation sheet via the adhesive material layer, and a front surface covered by a temporary protection material; an adhesive material layer; a heat dissipation sheet; an encapsulation material layer formed by making an encapsulation material flow into and fill a gap between the temporary protection material and the heat dissipation sheet and/or cover a side of the heat dissipation sheet opposite to a side thereof mounted with the chip, and then removing the temporary protection material; a packaging circuit grown on the front surface of the chip, the encapsulation material, and the heat dissipation sheet; and a packaging circuit protection layer protecting the packaging circuit.

Abstract: A fan-out packaging method includes: prepare circuit patterns on one side or both sides of a substrate; install electronic parts on one side or both sides of the substrate; prepare packaging layers on both sides of the substrate; the packaging layers on both sides of the substrate package the substrate, the circuit patterns, and the electronic parts, the packaging layers being made of a thermal-plastic material; wherein the substrate is provided with a via hole; both sides of the substrate are communicated by means of the via hole; a part of the packaging layers penetrate through the via hole when the packaging layers are prepared on both sides of the substrate; and the packaging layers on both sides of the substrate are connected by means of the via hole.

Abstract: The present disclosure provides a chip packaging structure and method, using a back-to-back packaging structure, and realizing electrical connection between chips through TSV holes or cooperation between TSV and TMV holes, completely penetrating two chips. Thus, the TSV hole passing through a silicon material may not need to be formed in advance on the chips before bonding the chips, thereby the requirement of alignment accuracy of the chips can be reduced, and the process difficulty can be reduced. In addition, as the back-to-back packaging process is adopted, the heat dissipation efficiency of the chips can be improved, and the problem of circuit breakage due to materials with different expansion coefficients present between the chips can be avoided.

Abstract: A fan-out packaging method includes: prepare circuit patterns on one side or both sides of a substrate; install electronic parts on one side or both sides of the substrate; prepare packaging layers on both sides of the substrate; the packaging layers on both sides of the substrate package the substrate, the circuit patterns, and the electronic parts, the packaging layers being made of a thermal-plastic material; wherein the substrate is provided with a via hole; both sides of the substrate are communicated by means of the via hole; a part of the packaging layers penetrate through the via hole when the packaging layers are prepared on both sides of the substrate; and the packaging layers on both sides of the substrate are connected by means of the via hole.

Abstract: A fan-out packaging method employing a combined process includes: manufacturing at least two layers of basic circuit patterns on a substrate; manufacturing a galvanic isolation layer on one of the two layers of basic circuit patterns; manufacturing a fine circuit pattern on the galvanic isolation layer; using a bonding layer to bond an electronic component to the galvanic isolation layer, and using a patch material to establish an electrical connection between the electronic component and the fine circuit pattern; and using a packaging layer to package the electronic component, wherein the fine circuit pattern has a width less than widths of the basic circuit patterns. In the present disclosure, multiple layers of circuits are manufactured before installation and packaging of electronic components, thereby reducing the number of times an insulation material is to be heated, and broadening the range of available types of insulation materials.

Abstract: A packaging method and package structure for a filter chip. The packaging method includes providing a circuit substrate, covering a first surface of the circuit substrate and/or filter chip with adhesive material and forming recessed cavities or closed cavities in the adhesive material. The method further includes adhering the filter chip to the first surface of circuit substrate via the adhesive material, such that surface acoustic wave transmitting regions of the filter chip correspond to the recessed cavities or closed cavities in the adhesive material to form a gap therebetween, and encapsulating the filter chip with encapsulating material. The method further includes forming interconnecting holes extending from a second surface of the circuit substrate to pins of the filter chip, filling the interconnecting holes with conductive material, so that the conductive material is in electrical contact with a chip pin bump or pad metal of the filter chip, and forming external pin pads on the second surface.