Application of antimony trioxide material as dielectric material between semiconductor integrated circuit layers or between metals
An antimony trioxide and integrated circuit technology, which is applied in the field of antimony trioxide material as a dielectric material between layers of semiconductor integrated circuits or between metals, can solve the problem of low thermal stability and mechanical stability, increased signal propagation delay, Problems such as poor compatibility, to achieve high temperature thermal stability, resistance to electrical breakdown, improved performance, and ultra-low dielectric constant.
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
preparation example Construction
[0086] Another aspect of the present invention provides a method for preparing the antimony trioxide material used in the foregoing process of the present invention, comprising: using (1) antimony trioxide powder or (2) under vacuum conditions and an inert gas and / or oxygen atmosphere Metal antimony powder is used as a reaction source, and antimony trioxide materials with the same crystal structure, uniform composition and no defects can be obtained by depositing on the substrate. Representative results of component analysis, such as Figure 12 , Figure 13 ; representative results of single crystal crystallinity, such as Figure 14 , Figure 15 , Figure 16 , Figure 17 .
[0087] In the preparation method of antimony trioxide material, the vacuum condition for the material synthesis, that is, the pressure in the reaction is 3-500 Torr; 3-60 Torr; 60-100 Torr; 100-200 Torr; 200-300 Torr; 300-400 Torr; 500 Torr; 3-15 Torr; or 15-100 Torr. The inert gas is argon and / or n...
Embodiment 1
[0107] Two-dimensional α-phase Sb 2 o 3 Preparation of Molecular Crystal Nanosheets
[0108] (1) Synthetic equipment adopts such as Figure 5 The horizontal single temperature zone vacuum tube furnace synthesis system shown. First, 15 mg of high-purity antimony trioxide powder (α-phase Sb 2 o 3 powder) into a quartz boat, placed in the center of the quartz tube of the tube furnace, then place the substrate at a position 17 cm away from the powder raw material downstream of the air flow in the tube, and assemble and seal the device. The background was then vacuumed to 5 x 10 - 2 Below Torr, feed 100 sccm high-purity argon for 3 minutes without controlling the pressure inside the tube, and then pump the background vacuum to 5×10 - 2 Torr below. Repeat the pumping and ventilation at least twice in this way to discharge the impurity gas in the quartz tube.
[0109](2) 0 sccm of high-purity oxygen and 300 sccm of high-purity argon are introduced, and the pressure inside t...
Embodiment 2
[0111] Two-dimensional α-phase Sb 2 o 3 Preparation of Molecular Crystal Nanosheets
[0112] (1) Synthetic equipment adopts such as Figure 5 The horizontal single temperature zone vacuum tube furnace synthesis system shown. First, put 15 mg of high-purity metal antimony powder (Sb) into a quartz boat and place it in the center of the quartz tube of the tube furnace, then place the substrate at a position 20 cm away from the powder material downstream of the air flow in the tube, and assemble and seal the device. The background was then vacuumed to 5 x 10 -2 Below Torr, feed 100 sccm high-purity argon for 3 minutes without controlling the pressure inside the tube, and then pump the background vacuum to 5×10 -2 Torr below. Repeat the pumping and ventilation at least twice in this way to discharge the impurity gas in the quartz tube.
[0113] (2) 20 sccm of high-purity oxygen and 100 sccm of high-purity argon are introduced, and the pressure inside the tube is maintained a...
PUM
| Property | Measurement | Unit |
|---|---|---|
| breakdown field strength | aaaaa | aaaaa |
| thickness | aaaaa | aaaaa |
| diameter | aaaaa | aaaaa |
Abstract
Description
Claims
Application Information
Login to View More 


