TY - JOUR
T1 - The characteristics of large area processing plasmas
AU - Park, Sea Eun
AU - Cho, Byung Ug
AU - Lee, Jae Koo
AU - Lee, Young Joon
AU - Yeom, Geun Young
PY - 2003/8
Y1 - 2003/8
N2 - In order to improve production efficiency, large-diameter wafer substrates (300-mm diameter) and large-area glass substrates (from 400 cm2 to 1 m2) have been adopted recently. As a result, the development of large and high-density plasma source has become essential. To investigate the discharge phenomenon in the chamber that consists of embedded antenna coil in the rectangular system (1020 × 830 × 437 mm), we have developed a two-dimensional fluid simulation model. In order to check our model, the results from our simulation have been compared with available experimental data. The comparison is generally in a good agreement with experiments. Depending on the current direction and powered method, the distribution of plasma parameters has many differences. In our simulation with a chamber larger than is usually used in other experiments, we examine three effects: The distance between antenna coils, structure in the chamber, and the depth of the chamber. The parameters, which affect nonuniformity, electron temperature, and others, can be explained in a manner similar to the inductively coupled plasma source with a cylindrical chamber. Our simulation results confirm that the embedded antenna coil system with a suitable environment can be extended by many antenna coils as a large-area plasma source.
AB - In order to improve production efficiency, large-diameter wafer substrates (300-mm diameter) and large-area glass substrates (from 400 cm2 to 1 m2) have been adopted recently. As a result, the development of large and high-density plasma source has become essential. To investigate the discharge phenomenon in the chamber that consists of embedded antenna coil in the rectangular system (1020 × 830 × 437 mm), we have developed a two-dimensional fluid simulation model. In order to check our model, the results from our simulation have been compared with available experimental data. The comparison is generally in a good agreement with experiments. Depending on the current direction and powered method, the distribution of plasma parameters has many differences. In our simulation with a chamber larger than is usually used in other experiments, we examine three effects: The distance between antenna coils, structure in the chamber, and the depth of the chamber. The parameters, which affect nonuniformity, electron temperature, and others, can be explained in a manner similar to the inductively coupled plasma source with a cylindrical chamber. Our simulation results confirm that the embedded antenna coil system with a suitable environment can be extended by many antenna coils as a large-area plasma source.
KW - Embedded antenna coil
KW - Inductively coupled plasma source
KW - Large-area plasma source
UR - https://www.scopus.com/pages/publications/0041927820
U2 - 10.1109/TPS.2003.815247
DO - 10.1109/TPS.2003.815247
M3 - Article
AN - SCOPUS:0041927820
SN - 0093-3813
VL - 31
SP - 628
EP - 637
JO - IEEE Transactions on Plasma Science
JF - IEEE Transactions on Plasma Science
IS - 4 II
ER -