Mounting device and mounting method

1 . A mounting device comprising:

a head configured to support a first member;

a stage configured to support a second member;

a sensor configured to sense a deviation in positions of and parallelism between a first member and a second member;

a bonding actuator configured to adjust a relative position and a relative parallelism of the first member and the second member based on the deviation of the positions and the parallelism sensed by the sensor; and

a controller,

wherein the bonding actuator comprises,

a housing,

a slider accommodated in the housing in a non-contact state and provided with the head thereon, and

at least two X1-axis motors driven in an X-axis direction, at least three Y1-axis motors driven in a Y-axis direction, and at least one Z1-axis motor driven in a Z-axis direction, each of which has a coil and a yoke in a non-contact state, the coil being fixed to the housing and the yoke being fixed to the slider,

wherein the controller configured to bond the first member to the second member in a state of adjusting the relative position and the relative parallelism of the first member and the second member by driving the slider in six axial directions, the six axial directions including the X-axis direction, the Y-axis direction, the Z-axis direction, a Tx direction, a Ty direction, and a Tz direction, and

wherein two directions orthogonal to each other on a horizontal plane are defined as the X-axis direction and the Y-axis direction, and a direction orthogonal to the horizontal plane is defined as the Z-axis direction, and the Tx direction, the Ty direction and the Tz direction are defined as rotational directions for the X-axis direction, the Y-axis direction, and the Z-axis direction, respectively.

2 . The mounting device of claim 1 , further comprising:

at least one detector configured to detect an amount of movement of the slider,

wherein the controller is further configured to drive the slider based on the amount of movement of the slider detected by the at least one detector and control the relative position and the relative parallelism of the first member and the second member.

3 . The mounting device of claim 2 , wherein

the at least one detector comprises a first pair of Y-Z-axis two-dimensional encoders configured to face each other in the X-axis direction and detect first positions in the Y-axis direction and the Z-axis direction, and a second pair of X-Z-axis two-dimensional encoders configured to face each other in the Y-axis direction and detect second positions in the X-axis direction and the Z-axis direction, and

the controller is further configured to recognize a posture of the slider using values detected by the first pair of Y-Z-axis two-dimensional encoders and the second pair of X-Z-axis two-dimensional encoders and control the posture of the slider in the six axial directions.

4 . The mounting device of claim 3 , wherein

the at least one detector comprises,

each of the first pair of the Y-Z-axis two-dimensional encoders comprising a Y-Z-axis two-dimensional encoder scale,

each of the second pair of the X-Z-axis two-dimensional encoders comprising an X-Z-axis two-dimensional encoder scale, the Y-Z-axis two-dimensional encoder scale and the X-Z-axis two-dimensional encoder scale mounted on one rigid body of the slider, and

a sensor head configured to read the Y-Z-axis two-dimensional encoder scale and the X-Z-axis two-dimensional encoder scale, and

the controller is configured to

calculate control amounts of each of X1-axis motors, each of Y1-axis motors, and a Z1-axis motor, respectively, with respect to a position of the first member, according to a relationship between a position in which the first member is maintained and a position of the sensor head, and

collectively control each of the X1-axis motors, each of the Y1-axis motors, and the Z1-axis motor.

5 . The mounting device of claim 1 , wherein the slider is supported on the housing by an air cylinder.

6 . The mounting device of claim 5 , wherein the slider includes a main body portion to which the yoke is fixed and a plurality of hinges configured to connect the main body portion and the air cylinder.

7 . The mounting device of claim 5 , further comprising:

a pressure sensor configured to sense pressure of each base of the air cylinder.

8 . The mounting device of claim 1 , wherein each of the X1-axis motors, the Y1-axis motors, and the Z1-axis motor is configured to move in an axial direction other than a driving direction, within a range of a gap between the coil and the yoke.

9 . The mounting device of claim 1 , wherein the Z1-axis motor is configured to adjust the relative position and the relative parallelism of the first member and the second member, and apply pressure when bonding the first member to the second member.

10 . The mounting device of claim 4 , wherein

each of the X1-axis motors, the Y1-axis motors, and the Z1-axis motor comprises a magnet fixed to the yoke.

11 . A mounting device comprising:

a bonding head configured to support a first member; and

a bonding stage configured to support a second member to be attached to the first member;

wherein the bonding head comprises a housing, a slider provided with a head adsorbing the first member, an air cylinder levitating and supporting the slider in a non-contact state, and a plurality of VCMs (voice coil motors), and

wherein each of the plurality of VCMs comprises a coil disposed at the housing and a yoke disposed at the slider.

12 . The mounting device of claim 11 , wherein

in each of the plurality of VCMs, a cross-sectional shape of the yoke is U-shape.

13 . The mounting device of claim 11 , wherein

the plurality of VCMs comprise two VCMs driven in a X-axis direction, three VCMs driven in a Y-axis direction, and one VCM driven in a Z-axis direction.

14 . The mounting device of claim 11 , wherein

the plurality of VCMs drive the slider in six axial directions having a X-axis direction, a Y-axis direction, a Z-axis direction, a Tx-axis direction, a Ty-axis direction and a Tz-axis direction.

15 . The mounting device of claim 11 , wherein

the bonding head further comprises a pressure sensor sensing pressure of the air cylinder.

16 . The mounting device of claim 11 , wherein

the bonding head further comprise an encoder detecting an amount of movement of the slider.

17 . The mounting device of claim 11 , wherein

the slider comprises a main body to which the yoke is attached, a cylinder rod movably mounted in a cylinder body as a slidable manner, and hinges connecting the main body and the cylinder rod.

18 . The mounting device of claim 17 , wherein

the hinges comprises a first hinge mounted between a lower surface of the cylinder rod and a plate-shaped member, and second hinges disposed between the main body and the plate-shaped member and disposed symmetrically around a tilt axis extending in a longitudinal direction of the cylinder rod.

19 . The mounting device of claim 18 , wherein

the plate-shaped member has a square shape, and a number of the second hinges is four.

20 . A mounting method comprising:

supporting a first member by a head;

supporting a second member by a stage;

detecting a deviation of positions of and a parallelism between the first member and the second member; and

bonding the first member to the second member in a state of adjusting a relative position and a relative parallelism of the first member and the second member, by

having a housing, a slider supported on the housing in a non-contact state and provided with the head, and a coil and a yoke provided in the non-contact state, the coil being fixed to the housing, and the yoke being fixed to the slider, and

driving the slider in six axial directions based on the deviation of the positions and the relative parallelism, by a bonding actuator, the six axial directions including an X-axis direction, a Y-axis direction, a Z-axis direction, a Tx direction, a Ty direction, and a Tz direction, the bonding actuator including at least two X1-axis motors driven in the X-axis direction, at least three Y1-axis motors driven in the Y-axis direction, and at least one Z1-axis motor driven in the Z-axis direction,

wherein two directions orthogonal to each other on a horizontal plane are defined as the X-axis direction and the Y-axis direction, and a direction orthogonal to the horizontal plane is defined as the Z-axis direction, and the Tx direction, the Ty direction and the Tz direction are defined as rotational directions for each of the X-axis direction, the Y-axis direction, and the Z-axis direction.