Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: In a substrate processing apparatus, a phosphoric acid aqueous solution is supplied to a processor, and a liquid collection from the processor is concurrently performed. Further, a silicon concentration is adjusted, to supply an adjusted processing liquid to the processor. Thus, a phosphoric acid aqueous solution film is formed on the substrate. The liquid film is heated by a heating device. The heating device has lamp heaters in a casing made of a silica glass. The phosphoric acid aqueous solution on the substrate is irradiated with infrared rays. A nitrogen gas flowing in a gas passage formed in the casing is discharged towards a position outside an outer periphery of the substrate.

Abstract: In a substrate processing apparatus, a phosphoric acid aqueous solution is supplied to a processor, and a liquid collection from the processor is concurrently performed. Further, a silicon concentration is adjusted, to supply an adjusted processing liquid to the processor. Thus, a phosphoric acid aqueous solution film is formed on the substrate. The liquid film is heated by a heating device. The heating device has lamp heaters in a casing made of a silica glass. The phosphoric acid aqueous solution on the substrate is irradiated with infrared rays. A nitrogen gas flowing in a gas passage formed in the casing is discharged towards a position outside an outer periphery of the substrate.

Abstract: A phosphoric acid aqueous solution in a production tank circulates a circulation system. The circulation system is configured to be switchable between a first state in which the phosphoric acid aqueous solution is circulated through a bypass pipe and a second state in which the phosphoric acid aqueous solution is circulated through a filter. When a silicon containing liquid is supplied to the production tank, the circulation system is switched to the first state. When silicon particles are uniformly dispersed in the phosphoric acid aqueous solution, the circulation system is switched to the second state. Alternatively, a filtration member is provided in the production tank. The silicon containing liquid is stored in the filtration member. The filtration member is dipped in the phosphoric acid aqueous solution stored in the production tank. The silicon containing liquid is permeated through the filtration member, and is mixed with the phosphoric acid aqueous solution.

Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: A substrate processing method includes a phosphoric acid processing step of supplying a phosphoric acid aqueous solution, which contains silicon and has a silicon concentration lower than a saturation concentration, to a front surface of a substrate, a liquid volume reducing step of reducing a volume of the phosphoric acid aqueous solution on the substrate, after the phosphoric acid processing step, and a rinse replacing step of supplying a rinse liquid having a temperature lower than that of the phosphoric acid aqueous solution supplied to the front surface of the substrate in the phosphoric acid processing step to the front surface of the substrate covered with the phosphoric acid aqueous solution at least partially, after the liquid volume reducing step.

Abstract: A substrate treatment method for treating a substrate including a first silicon nitride film provided on a front surface thereof and a silicon oxide film provided on the first silicon nitride film to remove the first silicon nitride film and the silicon oxide film from the substrate includes: a first phosphoric acid treatment step of supplying a phosphoric acid aqueous solution having a predetermined first concentration to the substrate held by a substrate holding unit to treat the substrate with the first concentration phosphoric acid aqueous solution for the removal of the first silicon nitride film; and a second phosphoric acid treatment step of supplying a phosphoric acid aqueous solution having a second concentration lower than the first concentration to the substrate to treat the substrate with the second concentration phosphoric acid aqueous solution for the removal of the silicon oxide film after the first phosphoric acid treatment step.

Abstract: A substrate processing method includes a phosphoric acid processing step of supplying a phosphoric acid aqueous solution, which contains silicon and has a silicon concentration lower than a saturation concentration, to a front surface of a substrate, a liquid volume reducing step of reducing a volume of the phosphoric acid aqueous solution on the substrate, after the phosphoric acid processing step, and a rinse replacing step of supplying a rinse liquid having a temperature lower than that of the phosphoric acid aqueous solution supplied to the front surface of the substrate in the phosphoric acid processing step to the front surface of the substrate covered with the phosphoric acid aqueous solution at least partially, after the liquid volume reducing step.

Abstract: A phosphoric acid aqueous solution in a production tank circulates a circulation system. The circulation system is configured to be switchable between a first state in which the phosphoric acid aqueous solution is circulated through a bypass pipe and a second state in which the phosphoric acid aqueous solution is circulated through a filter. When a silicon containing liquid is supplied to the production tank, the circulation system is switched to the first state. When silicon particles are uniformly dispersed in the phosphoric acid aqueous solution, the circulation system is switched to the second state. Alternatively, a filtration member is provided in the production tank. The silicon containing liquid is stored in the filtration member. The filtration member is dipped in the phosphoric acid aqueous solution stored in the production tank. The silicon containing liquid is permeated through the filtration member, and is mixed with the phosphoric acid aqueous solution.

Abstract: In a substrate processing apparatus, a phosphoric acid aqueous solution is supplied to a processor, and a liquid collection from the processor is concurrently performed. Further, a silicon concentration is adjusted, to supply an adjusted processing liquid to the processor. Thus, a phosphoric acid aqueous solution film is formed on the substrate. The liquid film is heated by a heating device. The heating device has lamp heaters in a casing made of a silica glass. The phosphoric acid aqueous solution on the substrate is irradiated with infrared rays. A nitrogen gas flowing in a gas passage formed in the casing is discharged towards a position outside an outer periphery of the substrate.

Abstract: A substrate treatment method for treating a substrate including a first silicon nitride film provided on a front surface thereof and a silicon oxide film provided on the first silicon nitride film to remove the first silicon nitride film and the silicon oxide film from the substrate includes: a first phosphoric acid treatment step of supplying a phosphoric acid aqueous solution having a predetermined first concentration to the substrate held by a substrate holding unit to treat the substrate with the first concentration phosphoric acid aqueous solution for the removal of the first silicon nitride film; and a second phosphoric acid treatment step of supplying a phosphoric acid aqueous solution having a second concentration lower than the first concentration to the substrate to treat the substrate with the second concentration phosphoric acid aqueous solution for the removal of the silicon oxide film after the first phosphoric acid treatment step.

Abstract: A substrate processing apparatus includes a substrate supporting part for supporting a substrate in a horizontal state, an upper nozzle for discharging deionized water as a cleaning solution toward a center portion of an upper surface of the substrate, and a substrate rotating mechanism for rotating the substrate supporting part together with the substrate around a central axis directed in a vertical direction. In the substrate processing apparatus, the plurality of discharge ports are provided in the upper nozzle, and the flow rate of the deionized water to be supplied onto the center portion of the substrate from the upper nozzle can be ensured, with the flow rate of the deionized water from each discharge port reduced. It is thereby possible to perform appropriate cleaning of the upper surface of the substrate while suppressing electrification at the center portion of the substrate.

Abstract: To provide a beverage dispenser capable of appropriately and smoothly supplying a supercooled beverage. According to the present invention, there is disclosed a beverage dispenser including a beverage supply circuit 7 which supplies a carbonated beverage to the outside a primary cooling device 13, a secondary cooling device 30, and a heat exchanger 16 for supercooling which allows these components to cool the carbonated beverage flowing through the beverage supply circuit 7 into a supercooled state at a temperature of a solidifying point or less. The heat exchanger 16 supplies the carbonated beverage in the supercooled state to release the supercooled state in the outside, and the carbonated beverage on standby for serving in a portion of the beverage supply circuit 7 cooled by at least the heat exchanger 16 for supercooling is maintained in an unsaturated state.

Abstract: In a substrate processing apparatus, an outer edge portion of a substrate in a horizontal state is supported from below by an annular substrate supporting part, and a lower surface facing part having a facing surface facing a lower surface of the substrate is provided inside the substrate supporting part. A gas ejection nozzle for ejecting heated gas toward the lower surface is provided in the lower surface facing part, and the substrate is heated by the heated gas when an upper surface of the rotating substrate is processed with a processing liquid ejected from an upper nozzle. Further, a lower nozzle is provided in the lower surface facing part, to thereby perform a processing on the lower surface with a processing liquid. Since the gas ejection nozzle protrudes from the facing surface, a flow of the processing liquid into the gas ejection nozzle can be suppressed during the processing.

Abstract: To provide a beverage dispenser capable of appropriately and smoothly supplying a carbonated beverage as a supercooled beverage. According to the present invention, there is disclosed a beverage dispenser including a carbonator 51 for manufacturing carbonated water; a beverage supply circuit 7 for supplying a carbonated beverage manufactured by the carbonator 51 to the outside; a heat exchanger 16 for supercooling; and a primary cooling device 13, the carbonator 51 mixes a carbonic acid gas supplied from a gas regulator 54 which supplies a pressurized carbonic acid gas, syrup and diluting water to manufacture the carbonated beverage, and the heat exchanger 16 for supercooling cools the carbonated beverage flowing through the beverage supply circuit 7 into a supercooled state at a temperature of a solidifying point or less to release the supercooled state in the outside.

Abstract: To provide a beverage dispenser capable of appropriately and smoothly supplying a supercooled beverage. [Solving Means] The present invention provides a beverage dispenser 1 which supplies a beverage brought into a supercooled state at a solidifying point or less and which releases the supercooled state in the outside, and the beverage dispenser includes a primary cooling device 13 which cools the beverage to an ice point or so, a beverage supply circuit 7 which supplies the beverage cooled by the primary cooling device 13 to the outside, a brine circuit 31 through which an antifreezing liquid cooled to the solidifying point or less of the beverage is circulated, and a heat exchanger 16 for supercooling the beverage, which performs heat exchange between the beverage flowing through the beverage supply circuit 7 and the antifreezing liquid flowing through the brine circuit 31.

Abstract: A beverage dispenser capable of supplying a supercooled beverage without being influenced by a type of raw water. In various embodiments, the beverage dispenser includes a raw water treatment device that deaerates or filters raw water, a primary cooling device that cools the raw water to an ice point or so, and a secondary cooling device that cools the raw water into a supercooled state. In certain embodiments, the beverage dispenser further includes an anti-freezing liquid tank, a refrigerant circuit that cools the anti-freezing liquid to a supercooling temperature, and a brine circuit that circulates the anti-freezing liquid. According to certain aspects of the embodiments, a supercooled beverage can be quickly and reliably phase-changed to a different state when discharged to the outside.

Abstract: A substrate washing method for supplying a process liquid onto a substrate to wash the substrate includes the steps of (a) supplying a first process liquid of a first temperature onto the substrate having a resist pattern, to cover a surface of the substrate with the first process liquid, and (b) supplying a second process liquid onto the surface of the substrate covered with the first process liquid, to cover the surface of the substrate with the second process liquid of a second temperature higher than the first temperature, thereby removing the resist pattern.