Abstract: A deposition apparatus includes a chamber, a holding unit configured to hold a substrate in the chamber, a driving unit configured to move the holding unit holding the substrate such that the substrate passes through a deposition area in the chamber, a deposition unit configured to form a film on the substrate passing through the deposition area by supplying a deposition material to the deposition area, and a cooling unit configured to cool the holding unit.

Abstract: A deposition apparatus includes a chamber, a holding unit configured to hold a substrate in the chamber, a driving unit configured to move the holding unit holding the substrate such that the substrate passes through a deposition area in the chamber, a deposition unit configured to form a film on the substrate passing through the deposition area by supplying a deposition material to the deposition area, and a cooling unit configured to cool the holding unit.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: This application discloses a thin-film deposition apparatus comprising a vacuum chamber and a partition separating the inside of the vacuum chamber into two areas. A substrate is capable of passing through an inside opening provided in the partition. The inside opening is closed by a valve. A thin film is deposited onto the substrate in the first area. The substrate is heated by a heater in the second area prior to the deposition. The substrate is held by a holder in point contact while heated. A boosting-gas is introduced into the second area during the heating, thereby increasing pressure up to a viscous flow range. A pumping line evacuates the first area at a vacuum pressure all the time. The pumping line also evacuates the introduced boosting-gas from the second area to make the second area at a vacuum pressure when the valve is opened.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: A plasma processing system includes a reactor, a top electrode made of a magnetic or ferromagnetic metal or a metal-alloy, wherein a RF or DC power is applied to generate plasma within the reactor; a gas showerhead fixed to the top electrode; a sheet-like magnetic assembly bound to the upper surface of the gas showerhead, which includes a plurality of separate magnets, a metal sheet made of a ferromagnetic metal, and a deformable film.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: This application discloses a substrate heating apparatus comprising a partition separating the inside of a load-lock chamber into two areas. An inside opening provided in the partition is closed by a partition valve, while the second area in which a substrate is transferred is evacuated at a vacuum pressure by a pumping line. After the partition valve is opened, a carrier carries the substrate through the inside opening, thereby contacting the substrate onto a heat body disposed in the first area. Otherwise, after the partition valve is opened, a carrier carries a heat body through the inside opening, thereby contacting the substrate onto the heat body in the second area. This application also discloses a substrate processing system comprising a transfer chamber, and a load-lock chamber and a process chamber both provided on the periphery of the transfer chamber.

Abstract: This application discloses a substrate heating apparatus comprising a partition separating the inside of a load-lock chamber into two areas. An inside opening provided in the partition is closed by a partition valve, while the second area in which a substrate is transferred is evacuated at a vacuum pressure by a pumping line. After the partition valve is opened, a carrier carries the substrate through the inside opening, thereby contacting the substrate onto a heat body disposed in the first area. Otherwise, after the partition valve is opened, a carrier carries a heat body through the inside opening, thereby contacting the substrate onto the heat body in the second area. This application also discloses a substrate processing system comprising a transfer chamber, and a load-lock chamber and a process chamber both provided on the periphery of the transfer chamber.

Abstract: This application discloses a thin-film deposition apparatus comprising a vacuum chamber and a partition separating the inside of the vacuum chamber into two areas. A substrate is capable of passing through an inside opening provided in the partition. The inside opening is closed by a valve. A thin film is deposited onto the substrate in the first area. The substrate is heated by a heater in the second area prior to the deposition. The substrate is held by a holder in point contact while heated. A boosting-gas is introduced into the second area during the heating, thereby increasing pressure up to a viscous flow range. A pumping line evacuates the first area at a vacuum pressure all the time. The pumping line also evacuates the introduced boosting-gas from the second area to make the second area at a vacuum pressure when the valve is opened.

Abstract: A plasma processing system includes a reactor, a top electrode made of a magnetic or ferromagnetic metal or a metal-alloy, wherein a RF or DC power is applied to generate plasma within the reactor; a gas showerhead fixed to the top electrode; a sheet-like magnetic assembly bound to the upper surface of the gas showerhead, which includes a plurality of separate magnets, a metal sheet made of a ferromagnetic metal, and a deformable film.

Abstract: An electrostatic chuck device provided with a dielectric plate with a surface embossed to give it a plurality of projections, an electrode, and an external power source, wherein substrate supporting surfaces of the plurality of projections are covered by conductor wiring and the conductor wiring electrically connects the substrate supporting surfaces of the plurality of projections. At the time of substrate processing, when the embossed projections contact the back of the substrate, the back of the substrate and the conductor wiring is made the same in potential due to the migration of the charges, the generation of force between the back of the substrate and the conductor wiring being in contact with the same is prevented, and a rubbing state between the two is prevented. Due to this, the electrostatic chuck device reduces the generation of particles, easily and stably removes and conveys substrates, and realizes a high yield and system operating rate.

Abstract: A multichamber substrate processing apparatus in which substrates are always positioned accurately at set positions inside a process chamber is a practical apparatus that affords excellent productivity while occupying little space. A heating chamber 6 for heating a substrate Sb before a film is deposited in a sputtering chamber 8 and a CVD chamber 9 is provided with an alignment means for performing center alignment whereby the position of the center of the substrate Sb is calculated and the substrate is centered over a preset position, and for performing circumferential alignment whereby the circumferential position of the substrate Sb is calculated and this circumferential position is aligned with a preset position.

Abstract: The present invention provides a substrate processing apparatus having improved temperature distribution on a block heater and improved productivity. The substrate processing apparatus includes a reactor having an exhaust unit to form a vacuum environment therein for processing a surface of a substrate, a support member provided in the reactor, and gas introduction units for introducing reactive gases into the reactor, the substrate support member including a block heater. The block heater has upper, intermediate and lower members, which are placed one over another, the faying surfaces of the respective members being joined by diffusion bonding. A heating member is provided between the intermediate and lower members, and purge gas passages are formed between the intermediate and upper members.

Abstract: A substrate processing device includes a reactor equipped with a substrate holder and a gas feed electrode facing the substrate holder, a pump mechanism for pumping out an interior of the reactor, a reaction gas feed mechanism for introducing a reaction gas through the gas feed electrode into the interior of said reactor, a high frequency power source for applying a high frequency power to said gas feed electrode, a connecting port formed in a sidewall of said reactor, the pump mechanism is connected to the connecting port formed in the sidewall of the reactor, and a space between the gas feed electrode and the substrate holder is set so that a conductance between the gas feed electrode and the substrate holder is lower than a conductance between the sidewall of the reactor and the gas feed electrode.