Abstract: A processing apparatus includes a first temperature measuring unit configured to measure a surface temperature of a first member exposed in a first closed space, a supply line configured to supply a low-dew point gas into the first closed space and a control unit configured to control a flow rate of the low-dew point gas. The control unit performs a first process to a third process. In the first process, an absolute humidity of a gas within the first closed space at a position of a surface of the first member is specified for the flow rate of the low-dew point gas. In the second process, a saturated absolute humidity at the surface temperature of the first member is specified. In the third process, the flow rate of the low-dew point gas is controlled based on the absolute humidity of the gas and the saturated absolute humidity.

Abstract: A plasma processing apparatus includes supporting members, connecting members and a sliding member. Each of the supporting members is partially disposed in a disc-shaped cooling plate and configured to support an upper electrode in a direction of gravity. Each of the connecting members is partially disposed in the cooling plate and extends in a diametrical direction of the cooling plate to be engaged with the corresponding supporting member. The sliding member is configured to slide the connecting members inward in the diametrical direction of the cooling plate, thereby pushing upward the supporting member and lifting the upper electrode to the cooling plate.

Abstract: A substrate delivery method includes receiving a substrate by protruding a plurality of pins, detecting a position of a predetermined portion of the substrate in a state where the substrate is supported by the plurality of pins, estimating a deviation amount and a deviation direction of a positional deviation between a center position of the substrate and a predetermined reference position using a detected result, tilting the substrate, and bringing the substrate into partial contact with the placing table by lowering the plurality of pins at a same speed in a state where the substrate is tilted, and disposing the substrate on the placing table while moving the center position of the substrate by the deviation amount in a direction opposite to the deviation direction by using rotation of the substrate in a vertical direction due to contact with the placing table by continuously lowering the plurality of pins.

Abstract: A processing apparatus includes a first temperature measuring unit configured to measure a surface temperature of a first member exposed in a first closed space, a supply line configured to supply a low-dew point gas into the first closed space and a control unit configured to control a flow rate of the low-dew point gas. The control unit performs a first process to a third process. In the first process, an absolute humidity of a gas within the first closed space at a position of a surface of the first member is specified for the flow rate of the low-dew point gas. In the second process, a saturated absolute humidity at the surface temperature of the first member is specified. In the third process, the flow rate of the low-dew point gas is controlled based on the absolute humidity of the gas and the saturated absolute humidity.

Abstract: A pin control method includes: measuring respective height positions of a plurality of pins, which is vertically driven respectively by a plurality of driving units while supporting a substrate; selecting a reference pin, which serves as a reference for speed control, from the plurality of pins using the measured height positions of the plurality of pins; estimating, with respect to the selected reference pin, a reference height position, which is a height position after a predetermined time has passed since the height positions of the plurality of pins were measured; calculating an adjustment speed for making the height positions of the pins other than the reference pin match with the estimated reference height position; controlling the driving units, which drive the other pins, to adjust driving speeds of the other pins to the adjustment speed.

Abstract: A substrate processing apparatus includes a processing container; a placement table; a plurality of pins provided on the placement table configured to perform delivery of the substrate; a plurality of drivers configured to vertically drive the plurality of pins, respectively; a plurality of measuring devices each including an encoder configured to measure height positions of the plurality of pins, respectively. The substrate processing apparatus also includes a controller configured to: measure the height positions of the plurality of pins; select a reference pin; estimate a reference height position; calculate an adjustment speed for making the height positions of the pins other than the reference pin match with the estimated reference height position; and control the drivers, which drive the other pins, to adjust driving speeds of the other pins to an adjustment speed.

Abstract: A substrate delivery method includes receiving a substrate by protruding a plurality of pins, detecting a position of a predetermined portion of the substrate in a state where the substrate is supported by the plurality of pins, estimating a deviation amount and a deviation direction of a positional deviation between a center position of the substrate and a predetermined reference position using a detected result, tilting the substrate, and bringing the substrate into partial contact with the placing table by lowering the plurality of pins at a same speed in a state where the substrate is tilted, and disposing the substrate on the placing table while moving the center position of the substrate by the deviation amount in a direction opposite to the deviation direction by using rotation of the substrate in a vertical direction due to contact with the placing table by continuously lowering the plurality of pins.

Abstract: A pin control method includes: measuring respective height positions of a plurality of pins, which is vertically driven respectively by a plurality of driving units while supporting a substrate; selecting a reference pin, which serves as a reference for speed control, from the plurality of pins using the measured height positions of the plurality of pins; estimating, with respect to the selected reference pin, a reference height position, which is a height position after a predetermined time has passed since the height positions of the plurality of pins were measured; calculating an adjustment speed for making the height positions of the pins other than the reference pin match with the estimated reference height position; controlling the driving units, which drive the other pins, to adjust driving speeds of the other pins to the adjustment speed.

Abstract: A plasma processing apparatus includes supporting members, connecting members and a sliding member. Each of the supporting members is partially disposed in a disc-shaped cooling plate and configured to support an upper electrode in a direction of gravity. Each of the connecting members is partially disposed in the cooling plate and extends in a diametrical direction of the cooling plate to be engaged with the corresponding supporting member. The sliding member is configured to slide the connecting members inward in the diametrical direction of the cooling plate, thereby pushing upward the supporting member and lifting the upper electrode to the cooling plate.

Abstract: A plasma processing apparatus includes supporting members, connecting members and a sliding member. Each of the supporting members is partially disposed in a disc-shaped cooling plate and configured to support an upper electrode in a direction of gravity. Each of the connecting members is partially disposed in the cooling plate and extends in a diametrical direction of the cooling plate to be engaged with the corresponding supporting member. The sliding member is configured to slide the connecting members inward in the diametrical direction of the cooling plate, thereby pushing upward the supporting member and lifting the upper electrode to the cooling plate.

Abstract: A plasma processing apparatus of the present disclosure includes a chamber, a shutter, and a contact portion. The chamber has an opening in a sidewall thereof so as to carry a wafer W into the chamber through the opening, and performs therein a predetermined processing on the wafer W by plasma of a processing gas supplied thereinto. The shutter opens or closes the opening by moving along the sidewall of the chamber. The contact portion is formed of a conductive material, and is not in contact with the shutter while the shutter is moving. When the shutter is in the position for closing the opening, the contact portion is displaced in a direction different from the direction of movement of the shutter to come into contact with the shutter.

Abstract: A plasma processing apparatus includes supporting members, connecting members, a rotation member and fixing members. Each of the supporting members is partially disposed in a disc-shaped cooling plate and configured to support an upper electrode provided below the cooling plate. Each of the connecting members is partially disposed in the cooling plate and extends in a diametrical direction of the cooling plate to be engaged with the corresponding supporting member. The rotation member is provided to surround an outer periphery of the cooling plate and has recesses formed to face the cooling plate and engaged with the corresponding connecting members. Each of the fixing members is configured to lift and fix the upper electrode to the cooling plate by applying a torque to the corresponding connecting member.

Abstract: Provided is a substrate processing apparatus including a chamber; a placing table provided inside the chamber and configured to place a processing target substrate thereon; a pedestal configured to support the placing table from a lower side thereof; an exhaust port disposed below the pedestal; and a collecting member configured to collect a deposition in the chamber. The collecting member is provided on a lower surface of the pedestal.

Abstract: A plasma processing apparatus includes: a process chamber which accommodates a substrate to be processed; a lower electrode disposed in the process chamber; an upper electrode including an electrode plate that is detachable and discharges a process gas inside the form of shower into the process chamber; a gas supply unit including a central pipe and a edge pipe for supplying the process gas to the upper electrode; a first high frequency power source which applies high frequency power for plasma generation to the lower electrode; pressure indicators which detect pressures inside gas supply pipes; and a controller which measures a degree of consumption of the electrode plate based on the pressures detected by the pressure indicators and calculates a variation in process rate resulting due to the consumption of the electrode plate to adjust process conditions to resolve the variation in process rate.

Abstract: A plasma processing apparatus includes supporting members, connecting members and a sliding member. Each of the supporting members is partially disposed in a disc-shaped cooling plate and configured to support an upper electrode in a direction of gravity. Each of the connecting members is partially disposed in the cooling plate and extends in a diametrical direction of the cooling plate to be engaged with the corresponding supporting member. The sliding member is configured to slide the connecting members inward in the diametrical direction of the cooling plate, thereby pushing upward the supporting member and lifting the upper electrode to the cooling plate.

Abstract: A plasma processing apparatus includes supporting members, connecting members, a rotation member and fixing members. Each of the supporting members is partially disposed in a disc-shaped cooling plate and configured to support an upper electrode provided below the cooling plate. Each of the connecting members is partially disposed in the cooling plate and extends in a diametrical direction of the cooling plate to be engaged with the corresponding supporting member. The rotation member is provided to surround an outer periphery of the cooling plate and has recesses formed to face the cooling plate and engaged with the corresponding connecting members. Each of the fixing members is configured to lift and fix the upper electrode to the cooling plate by applying a torque to the corresponding connecting member.

Abstract: A plasma processing apparatus includes: a process chamber which accommodates a substrate to be processed; a lower electrode disposed in the process chamber; an upper electrode including an electrode plate that is detachable and discharges a process gas inside the form of shower into the process chamber; a gas supply unit including a central pipe and a edge pipe for supplying the process gas to the upper electrode; a first high frequency power source which applies high frequency power for plasma generation to the lower electrode; pressure indicators which detect pressures inside gas supply pipes; and a controller which measures a degree of consumption of the electrode plate based on the pressures detected by the pressure indicators and calculates a variation in process rate resulting due to the consumption of the electrode plate to adjust process conditions to resolve the variation in process rate.

Abstract: A plasma processing method includes the steps of etching the target object with a CF-based processing gas by using a patterned resist film as a mask, removing deposits accumulated inside a processing chamber during the step of etching the target object by using a processing gas containing at least an O2 gas, and ashing the resist film by using a processing gas containing at least an O2 gas. Relevant places in the processing chamber from which the deposits are removed are heated in the step of removing the deposits.

Abstract: A plasma processing method includes the steps of etching the target object with a CF-based processing gas by using a patterned resist film as a mask, removing deposits accumulated inside a processing chamber during the step of etching the target object by using a processing gas containing at least an O2 gas, and ashing the resist film by using a processing gas containing at least an O2 gas. Relevant places in the processing chamber from which the deposits are removed are heated in the step of removing the deposits.

Abstract: Substances which reduce the amount of lipids in serum and the liver are extracted from Yucca plants. These substances are capable of lowering high cholesterol and triglyceride values in serum as well as those in the livers of mammals and birds. A toxicity test in which these substances were administered to rats revealed that they have no acute toxicity.