Abstract:
A method includes placing a plurality of first package components over second package components, which are included in a third package component. First metal connectors in the first package components are aligned to respective second metal connectors of the second package components. After the plurality of first package components is placed, a metal-to-metal bonding is performed to bond the first metal connectors to the second metal connectors.
Abstract:
A semiconductor device which includes a first semiconductor chip 10, a first electrode 12 formed on the first semiconductor chip 10, a second semiconductor chip 20 to which the first semiconductor chip 10 is mounted, a second electrode 22 with a protrusion 24, which is formed on the second semiconductor chip 20, and a solder bump 14 which bonds the first electrode 12 and the second electrode 22 to cover at least a part of a side surface of the protrusion 24, and a method for manufacturing thereof are provided.
Abstract:
A method and device having chip scale MEMS packaging is described. A first substrate includes a MEMS device and a second substrate includes an integrated circuit. The frontside of the first substrate is bonded to the backside of the second substrate. Thus, the second substrate provides a cavity to encase, protect or operate the MEMS device within. The bond may provide an electrical connection between the first and second substrate. In an embodiment, a through silicon via is used to carry the signals from the first substrate to an I/O connection on the frontside of the second substrate.
Abstract:
Provided is a semiconductor device manufacturing system according to the present disclosure which manufactures a semiconductor device using a chip stack. The system includes a chip reducing apparatus and a chip bonding apparatus, the chip reducing apparatus includes a reduction chamber, an oxide film of the surface of the terminal of each chip is reduced in the reduction chamber, the chip bonding apparatus includes a reflow chamber isolated from the reduction chamber, a solder ball is bonded to the terminal of each chip in the reflow chamber, and the chip bonding apparatus is installed separately from the chip reducing apparatus.
Abstract:
A linear, serial chip/substrate assembly processing machine for stepwise advancing a pre-assembled chip/die substrate on a support plate through a series of sealable chambers having displacable bottom processing portions. The process begins at a loading station and ends up at an unloading station after various melting and vacuuming of chip/substrate components supported on a device tray through those various chambers to the final joining thereof.
Abstract:
In one embodiment, a method of manufacturing a semiconductor device is disclosed. The method includes forming a cured film of an insulation resin on a surface of a first semiconductor chip and flip-chip bonding a second semiconductor via a bump on the first semiconductor chip on which the cured film of the insulation resin is formed. The insulation resin can be cured at temperature range from (A−50)° C. to (A+50)° C., wherein “A” is a solidification point of the bump.
Abstract:
A serial thermal processing arrangement for treating a pre-assembled chip/wafer assembly of semiconductor material in a rotary processor, through a series of intermittent, rotatively advanced, movements into independent, temperature and pressure controlled, circumferentially disposed chambers.
Abstract:
A manufacturing method for manufacturing an electronic device includes a first electronic component and a second electronic component; and a bond part for the first electronic component joined to another bond part for the second electronic component. In a first process of this manufacturing method, the metallic bond part for the first electronic component is placed directly against the metallic bond part for the second electronic component, pressure is applied to the first electronic component and the second electronic component and, after metallically joining the above two bond parts, the pressure applied to the first electronic component and the second electronic component is released. In a second process in the manufacturing method, a clamping member affixes the relative positions of the joined first electronic component and second electronic component, and heats the first electronic component and the second electronic component to maintain a specified temperature.
Abstract:
The present invention intends to provide a power semiconductor device using a high-temperature lead-free solder material, the high-temperature lead-free solder material having the heat resistant property at 280° C. or more, and the bondability at 400° C. or less, and excellent in the suppliabilty and wettability of solder, and in the high-temperature storage reliability and the temperature cycle reliability. In the power semiconductor device according to the present invention, a semiconductor element and a metal electrode member were bonded each other by a high-temperature solder material comprising Sn, Sb, Ag, and Cu as the main constitutive elements and the rest of other unavoidable impurity elements wherein the high-temperature solder material comprises 42 wt %≦Sb/(Sn+Sb)≦48 wt %, 5 wt %≦Ag
Abstract translation:本发明旨在提供一种使用高温无铅焊料的功率半导体器件,具有280℃以上的耐热性的高温无铅焊料以及400℃下的结合性 或更低,焊料的可供应性和润湿性优异,以及高温存储的可靠性和温度循环的可靠性。 在根据本发明的功率半导体器件中,半导体元件和金属电极构件通过包含Sn,Sb,Ag和Cu的高温焊料作为主要构成元素彼此接合,其余的不可避免的 杂质元素,其中高温焊料材料包含42重量%<= Sb /(Sn + Sb)<= 48重量%,5重量%<= Ag <20重量%,3重量%<= Cu <10重量% 和Ag + Cu <= 25wt%。
Abstract:
A multiplicity of nanotubes are applied to at least one external chip metal contact of the electronic chip in order to make contact between the electronic chip and a further electronic chip.