A method for electroplating thin-film circuit patterns on ultra-thin quartz substrates
A thin-film circuit and substrate technology, which is applied in the manufacture of circuits, printed circuits, and printed circuits, can solve the problems of complex process, high price, and limited selection of temporary bonding materials, and achieve simple process and low cost. The effect of low cost and high yield rate
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Embodiment 1
[0032] like figure 1 as shown, figure 1 A flow chart of a method for electroplating thin film circuit graphics on an ultra-thin quartz substrate provided by the present invention, the method includes the following steps:
[0033] Step 101: At least one ultra-thin quartz substrate is polished on both sides, and a surface to be electroplated is provided on one side, and the surface to be electroplated is composed of a metal film pattern and a bonding area; the side of the substrate is polished , and form a metallized polished surface;
[0034] Step 102: Turn the conductive surface of the ultra-thin quartz substrate to be electroplated upwards, and bond the other side with the metallized and polished surface of the carrying substrate through photoresist to form a temporary bonding body;
[0035] Step 103: Form a bonding area and an electroplating connection area on the metallized polished surface of the carrier substrate of the temporary bonding body by mask photolithography, a...
Embodiment 2
[0047] On the basis of the above-described embodiments, the following non-limiting examples further illustrate a method of the present invention for electroplating thin-film circuit patterns on ultra-thin quartz substrates, such as figure 2 As shown, two ultra-thin quartz substrates with different shapes and sizes and polished on both sides are provided, and the surface to be electroplated is set on one side, and the other side of the ultra-thin quartz substrate is set as a full-plate thin film metallization seed The layer ground plane, or the surface of the conductive path seed layer composed of an arrayed metal film pattern and a bonding area. Put the surface of these two ultra-thin quartz substrates to be electroplated metal film facing up, and use the method of spin-coating RZJ-390PG positive photoresist (viscosity 50mPa.s) to glue the back side to the metallized polished surface of the carrier substrate Form a temporary bonding body, and then realize the fabrication of e...
Embodiment 3
[0055] like figure 2 As shown, two ultra-thin quartz substrates with different shapes and sizes and double-sided polishing are provided, and the surface to be electroplated is set on one side, and the other side of the ultra-thin quartz substrate is set to be formed by an arrayed metal film pattern. The surface of the conductive path plating layer composed of the bonding area, or the ground plane of the full-board thin film metallization plating layer. Put the surface of the two ultra-thin quartz substrates to be electroplated with the metal film facing up, and use the method of spin-coating BP-218 positive photoresist (viscosity 150mPa.s) to glue the back side to the metallized polished surface of the carrier substrate Form a temporary bonding body, and then realize the fabrication of electroplated thin film circuit patterns on ultra-thin quartz substrates.
[0056] Firstly, two ultra-thin quartz substrates 4 whose surfaces to be electroplated are made of metal thin film pa...
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Abstract
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