Abstract: Provided is a cold jointing apparatus, which comprises a discharge device, a gas feeding device, a pressure gauge, a clarifying device, a pressure controller and a pressing mechanism. The discharge device discharges a gas from the inside of a chamber. The gas feeding device feeds an introduction gas to the inside of the chamber. The pressure gauge measures the pressure in the chamber. The clarifying device clarifies a first board and a second board in the chamber when the measured pressure is at a predetermined degree of vacuum. The pressure controller controls both the discharge device and the gas feeding device so that the measured pressure may be equal to a target pressure. The pressing mechanism presses the first board and the second board in the chamber when the measured pressure is that target pressure.

Abstract: A room temperature bonding apparatus includes: an angle adjustment mechanism that supports a first sample stage holding a first substrate to a first stage so as to be able to change a direction of the first sample stage; a first driving device that drives the first stage in a first direction; a second driving device that drives a second sample stage holding a second substrate in a second direction not parallel to the first direction; and a carriage support table that supports the second sample stage in the first direction when the second substrate and the first substrate are brought into press contact with each other. In this case, the room temperature bonding apparatus can impose a larger load exceeding a withstand load of the second driving device on the first substrate and the second substrate.

Abstract: A method of and system for manufacturing a microstructure having high form accuracy and a manufacturing system is disclosed. On a rough motion stage having a predetermined positioning accuracy and a large stroke length, a fine motion stage having a small stroke length and a higher positioning accuracy is placed. First, the rough motion stage is moved to a desired position. By use of a mirror placed on a laser length measuring machine and the fine motion stage, the current position of a thin film member on the fine motion stage is precisely measured. This measurement value is feed-backed to a stage control device, and a difference between the current position and a target position is calculated by an error correcting unit. Thus, an error correcting instruction value is generated to move the fine motion stage to the target position. Thus, an error of the rough motion stage is corrected.

Abstract: A manufacturing system for a microstructure includes a rough motion stage having predetermined positioning accuracy and a large stroke length, a fine motion stage disposed on the rough motion stage and having higher positioning accuracy than the rough motion stage and a small stroke length, and the like collectively as a stage device disposed in a vacuum container, laser length measuring machines for measuring a distance to a mirror disposed on the fine motion stage, a stage control device for driving the fine motion stage by a result of measurement by the laser length measuring machines, and the like collectively as a stage control unit, and a pressing rod 44 for holding a pressure-contacting target member disposed opposite to a pressure-contacted member held by the stage device and pressure-contacting and separating the members, a pressure-contacting drive mechanism for applying a pressure-contacting force to the pressing rod 44, and the like collectively as a pressure-contacting mechanism unit.

Abstract: A method of and system for manufacturing a microstructure having high form accuracy and a manufacturing system is disclosed. On a rough motion stage having a predetermined positioning accuracy and a large stroke length, a fine motion stage having a small stroke length and a higher positioning accuracy is placed. First, the rough motion stage is moved to a desired position. By use of a mirror placed on a laser length measuring machine and the fine motion stage, the current position of a thin film member on the fine motion stage is precisely measured. This measurement value is feed-backed to a stage control device, and a difference between the current position and a target position is calculated by an error correcting unit. Thus, an error correcting instruction value is generated to move the fine motion stage to the target position. Thus, an error of the rough motion stage is corrected.