Abstract:
A method for manufacturing shielding which uses multiple vacuum sputtering methods to produce shielding on single IC chip. The method comprises the following steps: using covering fixtures to cover a plurality of IC chips and fixing these IC chips on a work support; vacuumizing the chamber to a pretreatment vacuum level; keeping pumping an ionizable gas into the chamber and performing ion bombardment on the material for IC packaging on the surface of these IC chips in order to produce carbon dangling bond connection layer on the material when the vacuum level of the chamber reaches the work vacuum level; performing multiple vacuum sputtering method to sequentially form a first coating layer, a second coating layer and a third coating layer on the carbon dangling bond connection layer; and breaking the vacuum status of the chamber and taking out the coated IC chips.
Abstract:
The present invention discloses a method for electrical connection between two surfaces of a ceramic substrate, and the method includes the steps of forming a through hole between the two surfaces of the ceramic substrate corresponding to electrical connection points of a circuit on the ceramic substrate, and then mounting a conductive assembly inside the through hole to form a conduction path between the two surfaces of the ceramic substrate. By this means, time cost of manufacturing of ceramic substrate circuit board could be largely decreased, and the manufacturing procedures could be much simplified as well.
Abstract:
The present invention discloses a heat dissipation module and a manufacturing method thereof. The heat dissipation module comprises a metal base, a porous metal layer and a metal plate member. The porous metal layer is disposed on one side of the metal base and includes a plurality of micropores. Parts of the plurality of micropores contain a metal medium. The metal plate member is disposed on one side of the porous metal layer. Heat is rapidly conducted from the metal base through the metal plate member to the environment by means of the porous metal layer and the metal medium.
Abstract:
A thermal module and a method of manufacturing the same are disclosed. The thermal module includes a first heat dissipation member, a second heat dissipation member, a binding layer, and a metal layer. The first heat dissipation member can be a heat dissipating substrate, and the second heat dissipation member can be a heat pipe or a heat dissipating substrate. The metal layer is coated on the first heat dissipation member through a metal spray process. The binding layer can be a solder paste. By providing the spray-coated metal layer, the thermal module can have upgraded heat dissipation efficiency, increased pull strength, and reduced manufacturing cost.
Abstract:
Equipment for making IC shielding coating layer and a metal shielding layer of IC. The equipment comprises a base, a work support, a plurality of medium frequency magnetron targets and a plurality of multi-arc ion targets. The base comprises a chamber. The work support is disposed in the chamber and movably connected with a plurality of rotation axes. Each rotation axes comprises at least one fixture. The fixture is used to put at least one IC. Each medium frequency magnetron target and each multi-arc ion target are disposed in the chamber. The medium frequency magnetron targets and the multi-arc ion targets are used to sputter a metal material over the IC to form at least one metal shielding layer on a surface of the IC.
Abstract:
The present invention discloses a metal member and a manufacturing method thereof. The metal member comprises a metal substrate and an intermediate layer. Wherein, the intermediate layer is disposed on the metal substrate by vacuum depositing, and the intermediate layer is a carbonized metal. Preferably, the intermediate layer could have a composition gradient or a thickness gradient to further increase the adhesion between the metal layer deposited on the metal substrate.
Abstract:
The present invention discloses a ceramic member and a manufacturing method thereof. The ceramic member comprises a ceramic substrate and an intermediate layer. Wherein, the intermediate layer is disposed on the ceramic substrate by vacuum depositing, and the intermediate layer is a carbonized metal (MxCy), an oxidized metal (MxOy) or a nitride metal (MxNy). Preferably, the intermediate layer could have a concentration gradient or a thickness gradient to further increase the adhesion between the metal layer deposited on the ceramic substrate.