Abstract:
A film forming apparatus of forming a film by supplying a process gas onto a substrate includes a rotation table having a loading region and is configured to revolve the substrate loaded on the loading region; a process gas supply mechanism configured to supply the process gas to a gas supply region to perform film formation on the substrate repeatedly passing through the gas supply region a plurality of times by revolution of the substrate; a first gear disposed on the other surface side of the rotation table and rotated in a rotation direction of the rotation table; a second gear configured with planetary gears engaging with the first gear, disposed to be revolved together with the loading region, and configured to rotate the loading region so as to allow the substrate to be rotated.
Abstract:
A film deposition method using a film deposition apparatus, includes: a film deposition process step in which at least a substrate is mounted on at least one of the circular concave portions and a film is deposited on the substrate; and a particle reducing process step performed before or after the film deposition process step, in which particles in the vacuum chamber are reduced without mounting substrates on the circular concave portions, the particle reducing process step including, a step of supplying a first gas to the vacuum chamber; a step of generating plasma from the first gas by supplying high frequency waves to a plasma generating device provided for the vacuum chamber; and a step of exposing the plurality of circular concave portions, on each of which a substrate is not mounted, to the plasma while rotating the susceptor.
Abstract:
A particle reducing method includes a step of supplying a first gas to a vacuum chamber in which a susceptor, formed by an insulating object and the surface of which is provided with a substrate mounting portion, is rotatably provided; a step of generating plasma from the first gas by supplying high frequency waves to a plasma generating device provided for the vacuum chamber; and a step of exposing the substrate mounting portion, on which a substrate is not mounted, to the plasma while rotating the susceptor.
Abstract:
A method for using a system, which includes a film formation apparatus for forming a high-dielectric constant thin film on target substrates together and a gas supply apparatus for supplying a process gas. The method includes a preparatory stage of determining a set pressure range of pressure inside a vaporizing chamber for a liquid material cooled at a set temperature. The preparatory stage includes obtaining a first limit value of pressure at which vaporization of the liquid material starts being inhibited due to an increase in the pressure, obtaining a second limit value of pressure at which vaporization of the liquid material starts being unstable and the pressure starts pulsating movement due to a decrease in the pressure, and determining the set pressure range to be defined by an upper limit lower than the first limit value and a lower limit higher than the second limit value.
Abstract:
A substrate processing apparatus includes a vacuum chamber including a top plate, a rotary table rotatably disposed in the vacuum chamber, a first process gas supply part that supplies a first process gas to be adsorbed on a surface of a substrate placed on the rotary table, a plasma processing gas supply part that is disposed apart from the first process gas supply part in a circumferential direction of the rotary table and supplies a second process gas to the surface of the substrate, a separation gas supply part that supplies a separation gas for separating the first process gas and the second process gas, a plasma generator that converts the second process gas into plasma, and an elevating mechanism that moves at least one of the plasma generator and the rotary table upward and downward.
Abstract:
A method for using a system, which includes a film formation apparatus for forming a high-dielectric constant thin film on target substrates together and a gas supply apparatus for supplying a process gas. The method includes a preparatory stage of determining a set pressure range of pressure inside a vaporizing chamber for a liquid material cooled at a set temperature. The preparatory stage includes obtaining a first limit value of pressure at which vaporization of the liquid material starts being inhibited due to an increase in the pressure, obtaining a second limit value of pressure at which vaporization of the liquid material starts being unstable and the pressure starts pulsating movement due to a decrease in the pressure, and determining the set pressure range to be defined by an upper limit lower than the first limit value and a lower limit higher than the second limit value.
Abstract:
A film deposition method deposits a silicon oxide film on a substrate in which a concave portion is formed by supplying a silicon-containing gas to the substrate so that the silicon-containing gas is adsorbed on the substrate and by oxidizing the adsorbed silicon-containing gas with an oxidation gas. A gas-phase temperature in an atmosphere above the substrate to which the silicon-containing gas is supplied can be kept lower by an inactive gas supplied from a separation area that separates the silicon gas supply part and the oxidation gas supply part even if the substrate is heated to a temperature higher than a temperature that can decompose the silicon-containing gas. Accordingly, the silicon-containing gas can adsorb on the substrate without decomposing in the gas phase.
Abstract:
A plasma processing apparatus includes a process chamber. A turntable is disposed in the process chamber and is configured to receive a substrate along a circumferential direction thereof. A process gas supply nozzle is configured to supply a process gas to the turntable. A plasma antenna is disposed on the process chamber at a position covering at least a part of the process gas supply nozzle. An ion trap plate is disposed over the process gas supply nozzle at a position overlapping at least a part of the plasma antenna in the process chamber.
Abstract:
A plasma processing method includes providing a plasma processing apparatus including a rotary table that is rotatably provided in a vacuum container and disposes a plurality of substrates on an upper surface along a circumferential direction, a gas supply source that supplies a plasma processing gas to at least one of a plurality of processing areas separated by a separation area in the circumferential direction of the rotary table, and an antenna that is provided to face the upper surface of the rotary table and generates plasma in the at least one processing area. The plasma processing method further includes disposing the plurality of substrates on the rotary table, and supplying the plasma processing gas into the vacuum container and supplying a pulsed wave of RF power to the antenna while rotating the rotary table.
Abstract:
A disclosed method of depositing a silicon film on a substrate mounted on a turntable and can pass by rotation through a first process area and a second process area, which are separately arranged along a peripheral direction in a cylindrical chamber set to have a first temperature capable of cutting a Si—H bond includes a molecular layer deposition step of supplying a Si2H6 gas set to have a second temperature less than the first temperature when the substrate passes through the first process area thereby forming a SiH3 molecular layer on a surface of the substrate, and a hydrogen desorption step of causing the substrate, on a surface of which the SiH3 molecular layer is formed, to pass through the second process area maintained to have the first temperature thereby cutting the Si—H bond and leaving only a silicon atomic layer on the surface of the substrate.