Abstract: A substrate holder positioning method, capable of positioning a substrate holder without using any positioning jig, includes: measuring a first position of a substrate held on a substrate holder included in a substrate carrying mechanism; carrying the substrate held on the substrate holder to a substrate rotating unit for holding and rotating the substrate; turning the substrate held by the substrate rotating unit through a predetermined angle by the substrate rotating unit; transferring the substrate turned by the substrate rotating unit from the substrate rotating unit to the substrate holder; measuring a second position of the substrate transferred from the substrate rotating unit to the substrate holder; determining the position of the center of rotation of the substrate rotating unit on the basis of the first and the second position; and positioning the substrate holder on the basis of the position of the center of rotation.

Abstract: A substrate holder positioning method, capable of positioning a substrate holder without using any positioning jig, includes: measuring a first position of a substrate held on a substrate holder included in a substrate carrying mechanism; carrying the substrate held on the substrate holder to a substrate rotating unit for holding and rotating the substrate; turning the substrate held by the substrate rotating unit through a predetermined angle by the substrate rotating unit; transferring the substrate turned by the substrate rotating unit from the substrate rotating unit to the substrate holder; measuring a second position of the substrate transferred from the substrate rotating unit to the substrate holder; determining the position of the center of rotation of the substrate rotating unit on the basis of the first and the second position; and positioning the substrate holder on the basis of the position of the center of rotation.

Abstract: A position alignment of a transfer point of a transfer arm is performed by using a position detecting method. The method includes: detecting electrostatic capacitances in relation with a reference object for position alignment by a plurality of electrostatic capacitance detecting electrodes provided on a surface of the substrate body; communicating with each electrostatic capacitance detecting electrode and controlling a detection of each electrostatic capacitance detecting electrode; and calculating coordinates (x, y) of the reference object with respect to the substrate body based on a preset relationship between electrostatic capacitance values of multiple electrostatic capacitance detecting electrodes and a position of the reference object with respect to the substrate body.

Abstract: A process block including a group of liquid-process related unit blocks, a first heating-process related block arranged on a carrier block side of the group of unit blocks, and a second heating-process related block arranged on an interface block side of the group of unit blocks. The group of liquid-process unit blocks includes doubled unit blocks for preprocessing for forming an antireflection film and a resist film, doubled unit blocks for post-processing for forming an upper layer film and performing a cleaning operation before exposure, and a unit block for developing. The first heating-process related block heats a substrate coated with a resist liquid and a substrate that has been developed. The second heating-process related block heats a substrate that has been exposed but is not yet developed, a substrate on which an antireflection film has been formed and a substrate on which an upper layer film has been formed.

Abstract: A process block is formed by arranging a heating-process related block on the side of a carrier block, a group of liquid-process related unit blocks, and a heating block on the side of an interface block, in this order from the side of the carrier block to the side of the interface block. The group of liquid-process related unit blocks is composed of: a group of unit blocks for coating films that is formed by stacking upward a unit block for an antireflection film, a unit block for a resist film, and a unit block for an upper layer film, in this order; and unit blocks for developing that are stacked on one another in the up and down direction with respect to the group of unit blocks for coating films. Liquid process modules of each of the liquid-process related unit blocks are arranged on the right and left sides of a transfer path for a substrate.

Abstract: The present invention is a transfer apparatus for a substrate, including a substrate housing container housing a substrate therein and having a transfer-in/out port for the substrate formed in a side surface thereof; a gas jet unit jetting a predetermined gas toward a rear surface of the substrate in the substrate housing container; and a control unit regulating a supply amount of the predetermined gas supplied from the gas jet unit to control the substrate in the substrate housing container to a predetermined height.

Abstract: A substrate transfer apparatus includes forks that are vertically spaced apart from each other with a predetermined distance. When the forks take out the substrates from the first substrate containing part, each of the forks lifts the substrate and supports the same by moving upward from a pre-loading position located below the substrate to be taken out by a predetermined unloading stroke amount. A value of the predetermined distance is set to be equal to the sum of the distance between the substrates contained in the first substrate containing part and the unloading stroke amount.

Abstract: A substrate holder positioning method, capable of positioning a substrate holder without using any positioning jig, includes: measuring a first position of a substrate held on a substrate holder included in a substrate carrying mechanism; carrying the substrate held on the substrate holder to a substrate rotating unit for holding and rotating the substrate; turning the substrate held by the substrate rotating unit through a predetermined angle by the substrate rotating unit; transferring the substrate turned by the substrate rotating unit from the substrate rotating unit to the substrate holder; measuring a second position of the substrate transferred from the substrate rotating unit to the substrate holder; determining the position of the center of rotation of the substrate rotating unit on the basis of the first and the second position; and positioning the substrate holder on the basis of the position of the center of rotation.

Abstract: A position alignment of a transfer point of a transfer arm is performed by using a position detecting method. The method includes: detecting electrostatic capacitances in relation with a reference object for position alignment by a plurality of electrostatic capacitance detecting electrodes provided on a surface of the substrate body; communicating with each electrostatic capacitance detecting electrode and controlling a detection of each electrostatic capacitance detecting electrode; and calculating coordinates (x, y) of the reference object with respect to the substrate body based on a preset relationship between electrostatic capacitance values of multiple electrostatic capacitance detecting electrodes and a position of the reference object with respect to the substrate body.

Abstract: A substrate transfer apparatus includes forks that are vertically spaced apart from each other with a predetermined distance. When the forks take out the substrates from the first substrate containing part, each of the forks lifts the substrate and supports the same by moving upward from a pre-loading position located below the substrate to be taken out by a predetermined unloading stroke amount. A value of the predetermined distance is set to be equal to the sum of the distance between the substrates contained in the first substrate containing part and the unloading stroke amount.

Abstract: A position alignment of a transfer point of a transfer arm is performed by using a position detecting wafer capable of being loaded into an apparatus having a thin transfer port. The position detecting wafer S includes an electrostatic capacitance detecting sensor 50 for detecting an electrostatic capacitance in relation with a reference object for the position alignment. The electrostatic capacitance detecting sensor 50 includes a plurality of electrostatic capacitance detecting electrodes 52, each forming the electrostatic capacitance in relation with the reference object; and a control circuit 51 for controlling a detection of the electrostatic capacitance by each electrostatic capacitance detecting electrode 52, while communicating with each electrostatic capacitance detecting electrode 52. The electrostatic capacitance detecting electrodes 52 are provided on a rear surface of the position detecting wafer S, and the control circuit 51 is provided on a front surface of the position detecting wafer S.

Abstract: A process block including a group of liquid-process related unit blocks, a first heating-process related block arranged on a carrier block side of the group of unit blocks, and a second heating-process related block arranged on an interface block side of the group of unit blocks. The group of liquid-process unit blocks includes doubled unit blocks for preprocessing for forming an antireflection film and a resist film, doubled unit blocks for post-processing for forming an upper layer film and performing a cleaning operation before exposure, and a unit block for developing. The first heating-process related block heats a substrate coated with a resist liquid and a substrate that has been developed. The second heating-process related block heats a substrate that has been exposed but is not yet developed, a substrate on which an antireflection film has been formed and a substrate on which an upper layer film has been formed.

Abstract: A process block is formed by arranging a heating-process related block on the side of a carrier block, a group of liquid-process related unit blocks, and a heating block on the side of an interface block, in this order from the side of the carrier block to the side of the interface block. The group of liquid-process related unit blocks is composed of: a group of unit blocks for coating films that is formed by stacking upward a unit block for an antireflection film, a unit block for a resist film, and a unit bock for an upper layer film, in this order; and unit blocks for developing that are stacked on one another in the up and down direction with respect to the group of unit blocks for coating films. Liquid process modules of each of the liquid-process related unit blocks are arranged on the right and left sides of a transfer path for a substrate.

Abstract: A transfer point of a transfer arm is detected accurately and stably by using a position detecting wafer having an electrostatic capacitance sensor. A position detecting wafer S is formed in a wafer shape transferable by a transfer arm 20 and includes an electrostatic capacitance sensor 50 for detecting a relative position with respect to a reference object by detecting an electrostatic capacitance in relation with the reference object for a position detection. The electrostatic capacitance sensor 50 includes a detection electrode 52 for forming the electrostatic capacitance in relation with the reference object, and the detection electrode 52 is installed on a rear surface of a main body of the wafer shape. Installed on the main body is a guard electrode 100 covering the detecting electrode 52 when viewed from a front surface thereof, for blocking an electric field oriented toward the detection electrode 52 from the front surface.

Abstract: A substrate carrying device decides whether or not a substrate received from a substrate supporting device is supported therein in a correct position. A support arm provided with support lugs and strain gages attached to the support lugs, respectively, is advanced to a forward position, and then the support arm is raised relative to lifting pins supporting a wafer to receive the wafer from the lifting pins. The strain gages measure strains produced in the support lugs, respectively, when load is placed on the support lugs. Decision about whether or not the wafer is supported in a correct position on the support lugs is made on the basis of strains measured by the strain gages. When it is decided that the wafer is supported in an incorrect position on the support lugs, the retraction of the support arm is inhibited.

Abstract: The present invention is a transfer apparatus for a substrate, including a substrate housing container housing a substrate therein and having a transfer-in/out port for the substrate formed in a side surface thereof; a gas jet unit jetting a predetermined gas toward a rear surface of the substrate in the substrate housing container; and a control unit regulating a supply amount of the predetermined gas supplied from the gas jet unit to control the substrate in the substrate housing container to a predetermined height.

Abstract: A transfer point of a transfer arm is detected accurately and stably by using a position detecting wafer having an electrostatic capacitance sensor. A position detecting wafer S is formed in a wafer shape transferable by a transfer arm 20 and includes an electrostatic capacitance sensor 50 for detecting a relative position with respect to a reference object by detecting an electrostatic capacitance in relation with the reference object for a position detection. The electrostatic capacitance sensor 50 includes a detection electrode 52 for forming the electrostatic capacitance in relation with the reference object, and the detection electrode 52 is installed on a rear surface of a main body of the wafer shape. Installed on the main body is a guard electrode 100 covering the detecting electrode 52 when viewed from a front surface thereof, for blocking an electric field oriented toward the detection electrode 52 from the front surface.

Abstract: A position alignment of a transfer point of a transfer arm is performed by using a position detecting wafer capable of being loaded into an apparatus having a thin transfer port. The position detecting wafer S includes an electrostatic capacitance detecting sensor 50 for detecting an electrostatic capacitance in relation with a reference object for the position alignment. The electrostatic capacitance detecting sensor 50 includes a plurality of electrostatic capacitance detecting electrodes 52, each forming the electrostatic capacitance in relation with the reference object; and a control circuit 51 for controlling a detection of the electrostatic capacitance by each electrostatic capacitance detecting electrode 52, while communicating with each electrostatic capacitance detecting electrode 52. The electrostatic capacitance detecting electrodes 52 are provided on a rear surface of the position detecting wafer S, and the control circuit 51 is provided on a front surface of the position detecting wafer S.

Abstract: A substrate transfer apparatus includes forks that are vertically spaced apart from each other with a predetermined distance. When the forks take out the substrates from the first substrate containing part, each of the forks lifts the substrate and supports the same by moving upward from a pre-loading position located below the substrate to be taken out by a predetermined unloading stroke amount. A value of the predetermined distance is set to be equal to the sum of the distance between the substrates contained in the first substrate containing part and the unloading stroke amount.

Abstract: A substrate processing apparatus can align a substrate with a high precision and a high speed by monitoring a mark formed on a surface of the substrate; operating an amount of misalignment between the center of the substrate and a rotation center of a substrate support member; determining a presence of the misalignment and adjusting the substrate such that the center of the substrate coincides with the rotation center of the substrate support member.