Abstract: A plasma processing apparatus has a circular chamber having an opening portion which serves as a plasma ejection port surrounded by a dielectric member, a gas supply pipe for introducing gas into the inside of the chamber, a coil provided in the vicinity of the chamber, a high-frequency power supply connected to the coil, and a base material mounting table.

Abstract: A plasma processing apparatus having a dielectric member that surrounds a circular chamber having a long shape and communicating with an opening portion having a long and linear shape, a gas supply pipe for introducing gas into an inside of the circular chamber, a coil provided in a vicinity of the circular chamber and having a long shape in parallel with a longitudinal direction of the opening portion, a high-frequency power supply connected to the coil, a base material mounting table that mounts a base material, and a moving mechanism that allows relative movement between the circular chamber and the base material mounting table in a perpendicular direction with respect to an longitudinal direction of the opening portion.

Abstract: In a plasma torch unit, copper rods forming a coil as a whole are disposed inside copper rod inserting holes formed in a quartz block so that the quartz block is cooled by water flowing inside the copper rod inserting holes and cooling water pipes. A plasma ejection port is formed on the lowermost portion of the torch unit. While a gas is being supplied into a space inside an elongated chamber, high-frequency power is supplied to the copper rods to generate plasma in the space inside the elongated chamber so that the plasma is applied to a substrate.

Abstract: A plasma processing apparatus having a dielectric member that surrounds a circular chamber having a long shape and communicating with an opening portion having a long and linear shape, a gas supply pipe for introducing gas into an inside of the circular chamber, a coil provided in a vicinity of the circular chamber and having a long shape in parallel with a longitudinal direction of the opening portion, a high-frequency power supply connected to the coil, a base material mounting table that mounts a base material, and a moving mechanism that allows relative movement between the circular chamber and the base material mounting table in a perpendicular direction with respect to an longitudinal direction of the opening portion.

Abstract: In a plasma torch unit, copper rods forming a coil as a whole are disposed inside copper rod inserting holes formed in a quartz block so that the quartz block is cooled by water flowing inside the copper rod inserting holes and cooling water pipes. A plasma ejection port is formed on the lowermost portion of the torch unit. While a gas is being supplied into a space inside an elongated chamber, high-frequency power is supplied to the copper rods to generate plasma in the space inside the elongated chamber so that the plasma is applied to a substrate.

Abstract: In a plasma torch unit, copper rods forming a coil as a whole are disposed inside copper rod inserting holes formed in a quartz block so that the quartz block is cooled by water flowing inside the copper rod inserting holes and cooling water pipes. A plasma ejection port is formed on the lowermost portion of the torch unit. While a gas is being supplied into a space inside an elongated chamber, high-frequency power is supplied to the copper rods to generate plasma in the space inside the elongated chamber so that the plasma is applied to a substrate.

Abstract: In a plasma torch unit, copper rods forming a coil as a whole are disposed inside copper rod inserting holes formed in a quartz block so that the quartz block is cooled by water flowing inside the copper rod inserting holes and cooling water pipes. A plasma ejection port is formed on the lowermost portion of the torch unit. While a gas is being supplied into a space inside an elongated chamber, high-frequency power is supplied to the copper rods to generate plasma in the space inside the elongated chamber so that the plasma is applied to a substrate.

Abstract: A film deposition process for depositing an amorphous metal oxide film, for example, an amorphous tantalum oxide film and a film treatment process for improving film quality of the amorphous tantalum oxide film in the state in which an amorphous state of the amorphous metal oxide film is being maintained by a high-density plasma radiation treatment based upon ion and radical reactions and which contains at least oxygen at an ion current density higher than 5 mA/cm2 are carried out, whereby a low-temperature treatment in the whole process is made possible. In addition, since the amorphous metal oxide film, which is excellent in film quality, can be deposited, the amorphous metal oxide film can be made high in reliability and can be produced inexpensively. The amorphous tantalum oxide film which is excellent in film quality can be manufactured inexpensively by a low-temperature treatment.

Abstract: A film deposition process for depositing an amorphous metal oxide film, for example, an amorphous tantalum oxide film, and a film treatment process for improving the film quality of the amorphous tantalum oxide film in the state in which an amorphous state of the amorphous metal oxide film is maintained by a high-density plasma radiation treatment based upon ion and radical reactions, and which contains at least oxygen at an ion current density higher than 5 mA/cm2 are carried out, whereby a low-temperature treatment in the whole process is made possible. In addition, since the amorphous metal oxide film, which is excellent in film quality, can be deposited, the amorphous metal oxide film can be made high in reliability and can be produced inexpensively. The amorphous tantalum oxide film, which is excellent in film quality, can be manufactured inexpensively by a low-temperature treatment.

Abstract: A film deposition process for depositing an amorphous metal oxide film, for example, an amorphous tantalum oxide film and a film treatment process for improving film quality of the amorphous tantalum oxide film in the state in which an amorphous state of the amorphous metal oxide film is being maintained by a high-density plasma radiation treatment based upon ion and radical reactions and which contains at least oxygen at an ion current density higher than 5 mA/cm2 are carried out, whereby a low-temperature treatment in the whole process is made possible. In addition, since the amorphous metal oxide film, which is excellent in film quality, can be deposited, the amorphous metal oxide film can be made high in reliability and can be produced inexpensively. The amorphous tantalum oxide film which is excellent in film quality can be manufactured inexpensively by a low-temperature treatment.

Abstract: A film deposition process for depositing an amorphous metal oxide film, for example, an amorphous tantalum oxide film and a film treatment process for improving film quality of the amorphous tantalum oxide film in the state in which an amorphous state of the amorphous metal oxide film is being maintained by a high-density plasma radiation treatment based upon ion and radical reactions and which contains at least oxygen at an ion current density higher than 5 mA/cm2 are carried out, whereby a low-temperature treatment in the whole process is made possible. In addition, since the amorphous metal oxide film, which is excellent in film quality, can be deposited, the amorphous metal oxide film can be made high in reliability and can be produced inexpensively. The amorphous tantalum oxide film which is excellent in film quality can be manufactured inexpensively by a low-temperature treatment.