JP2018149676A - Processing device and processing method - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a processing device capable of suppressing fluctuations in radius of curvature of an outer peripheral surface of a rotor.SOLUTION: A processing device 1, which is supported by a plurality of support rotors 501 and 502, performs removal processing for removing at least a part of an outer peripheral surface of a rotor 6 to be supported, which is rotated synchronously with rotation of the plurality of support rotors 501 and 502. The processing device 1 comprises a removal processing part 100 that performs removal processing by coming into contact with the outer peripheral surface of the rotor 6 to be supported, a displacement mechanism part 200 capable of supporting the removal processing part 100 and changing a position of the removal processing part 100 in the following direction, in association with movement of the outer peripheral surface of the rotor 6 to be supported, in a direction orthogonal to a central axis CA of the rotor 6 to be supported, and an urging part 300 for urging the removal processing part 100 toward the outer peripheral surface of the rotor 6 to be supported.SELECTED DRAWING: Figure 4

Description

  The present invention relates to a processing apparatus and a processing method.

  A supported rotating body that is supported by a plurality of supporting rotating bodies and that rotates as the plurality of supporting rotating bodies rotate is known. For example, the supported rotating body is a rotary kiln including a hollow cylindrical body and an annular tire fixed to the outer periphery of the body. The outer peripheral surface of the supported rotating body may be unevenly worn due to friction with the supporting rotating body. When the variation in the radius of curvature of the outer peripheral surface of the supported rotating body becomes excessive due to uneven wear, excessive vibration or noise is generated with the rotation of the supported rotating body.

  In order to cope with this problem, there is known a processing apparatus that performs a removal process for removing at least a part of the outer peripheral surface of the supported rotating body. For example, the processing apparatus described in Patent Document 1 includes a removal processing unit that removes at least a part of the outer peripheral surface by contacting the outer peripheral surface of the supported rotating body. The removal processing unit is fixed at a predetermined position.

JP 2008-6554 A

  In the above processing apparatus, when the position of the center axis of the supported rotating body does not change with the rotation of the supported rotating body, the distance between the removal processing unit and the center axis of the supported rotating body is the supported rotating body. Does not change with rotation. Therefore, when the removal processing part removes at least a part of the outer peripheral surface of the supported rotating body, the variation in the radius of curvature of the outer peripheral surface can be suppressed.

  However, as shown in FIG. 1, a convex portion 1001 may be formed on the outer peripheral surface due to uneven wear on the outer peripheral surface of the supported rotating body 1000. In this case, when the convex portion 1001 is in contact with the support rotating body 1100, the position of the central axis CA1 of the supported rotating body 1000 is closer to the removal processing portion 1200 than the central axis CA0 when the convex portion 1001 is not formed. .

  As a result, in a portion 1002 of the outer peripheral surface of the supported rotating body 1000 that is different from the protruding portion 1001, the distance between the central axis CA1 of the supported rotating body 1000 and the removal processing portion 1200 is formed as the protruding portion 1001. Shorter than if not. As a result, the amount of the outer peripheral surface removed by the removal processing unit 1200 in the portion 1002 different from the convex portion 1001 in the outer peripheral surface of the supported rotating body 1000 may be excessive.

  In addition, as shown in FIG. 2, a concave portion 1003 may be formed on the outer peripheral surface due to uneven wear or the like on the outer peripheral surface of the supported rotating body 1000. In this case, when the concave portion 1003 is in contact with the support rotating body 1100, the position of the central axis CA2 of the supported rotating body 1000 is further away from the removal processing portion 1200 than the central axis CA0 when the concave portion 1003 is not formed.

  Thereby, in the part 1004 different from the recessed part 1003 in the outer peripheral surface of the supported rotating body 1000, the distance between the central axis CA2 of the supported rotating body 1000 and the removal processing part 1200 is not formed with the recessed part 1003. Longer than the case. As a result, in the portion 1004 different from the recess 1003 in the outer peripheral surface of the supported rotating body 1000, the amount of the outer peripheral surface removed by the removal processing unit 1200 may be insufficient.

  Thus, in the above processing apparatus, even when the position of the central axis of the supported rotating body changes with the rotation of the supported rotating body, the position of the removal processing portion does not change. There is a possibility that fluctuations in the radius of curvature of the outer peripheral surface cannot be suppressed. As a result, for example, vibration or noise that occurs with rotation of the supported rotating body may not be suppressed.

  One of the objects of the present invention is to suppress fluctuations in the radius of curvature of the outer peripheral surface of the rotating body.

  In one aspect, the processing apparatus performs a removal process of removing at least a part of the outer peripheral surface of the supported rotating body that is supported by the plurality of supporting rotating bodies and rotates with the rotation of the plurality of supporting rotating bodies. .

Furthermore, this processing device
A removal processing portion for performing the removal processing by contacting the outer peripheral surface;
A displacement mechanism unit that supports the removal processing unit and can change the position of the removal processing unit in the direction along with the movement of the outer peripheral surface in a direction orthogonal to the central axis of the supported rotating body,
A biasing portion that biases the removal processing portion toward the outer peripheral surface;
Is provided.

In another aspect, the processing method is:
The supported rotating body supported by the plurality of supporting rotating bodies is rotated along with the rotation of the plurality of supporting rotating bodies,
The position of the removal processing portion for performing the removal process for removing at least a part of the outer peripheral surface of the supported rotating body is set in the direction along with the movement of the outer peripheral surface in the direction orthogonal to the central axis of the supported rotating body. Support the removal processing part so that it can be changed,
Energizing the removal processing part toward the outer peripheral surface,
The removal processing portion performs the removal processing by contacting the outer peripheral surface,
Including that.

  Variations in the radius of curvature of the outer peripheral surface of the rotating body can be suppressed.

It is explanatory drawing which represents notionally operation | movement of the processing apparatus of related technology. It is explanatory drawing which represents notionally operation | movement of the processing apparatus of related technology. It is a perspective view of the processing apparatus of 1st Embodiment. It is a side view of the processing apparatus of 1st Embodiment. It is a perspective view of the processing apparatus of 1st Embodiment. It is a perspective view of the processing apparatus of 1st Embodiment. It is a rear view of the processing apparatus of 1st Embodiment. It is a side view of the processing apparatus of 1st Embodiment. It is a front view of the processing apparatus of 1st Embodiment. It is a side view of the processing apparatus of 1st Embodiment. It is a side view of the processing apparatus of 1st Embodiment. It is a perspective view of the processing apparatus of 2nd Embodiment. It is a side view of the processing apparatus of 2nd Embodiment. It is a perspective view of the processing apparatus of 3rd Embodiment. It is a perspective view of the processing apparatus of 3rd Embodiment. It is a side view of the processing apparatus of 3rd Embodiment. It is a front view of the processing apparatus of 3rd Embodiment. It is sectional drawing of the processing apparatus in the plane represented by the XVIII-XVIII line of FIG. It is a side view of the processing apparatus of 3rd Embodiment. It is a side view of the processing apparatus of 3rd Embodiment. It is a model figure explaining the principle of the smoothing by the smoothing apparatus of 4th Embodiment. It is a model figure which shows the structural example of the smoothing apparatus shown in FIG. It is a figure which shows the specific structural example of the smoothing apparatus shown in FIG.

  Hereinafter, embodiments of the present invention relating to a processing apparatus and a processing method will be described with reference to FIGS.

<First Embodiment>
(Overview)
The processing apparatus according to the first embodiment performs removal processing that removes at least a part of the outer peripheral surface of the supported rotating body that is supported by the plurality of supporting rotating bodies and that rotates as the plurality of supporting rotating bodies rotate. Device.

The processing apparatus includes a removal processing unit, a displacement mechanism unit, and an urging unit.
The removal processing unit performs the removal processing by contacting the outer peripheral surface of the supported rotating body.
The displacement mechanism unit supports the removal processing unit and can change the position of the removal processing unit in the direction along with the movement of the outer peripheral surface of the supported rotating body in the direction orthogonal to the central axis of the supported rotating body. It is.
The urging portion urges the removal processing portion toward the outer peripheral surface of the supported rotating body.

  According to this, when the outer peripheral surface of the supported rotating body moves with the rotation of the supported rotating body in the direction in which the distance between the removal processing portion and the center axis of the supported rotating body becomes shorter, the removal is performed. The processing part can be moved in this direction. Thereby, it can suppress that the quantity of the outer peripheral surface removed by the removal process part becomes excessive.

  Further, when the outer peripheral surface of the supported rotating body moves with the rotation of the supported rotating body in the direction in which the distance between the removing processing section and the central axis of the supported rotating body becomes longer, the removing processing section is It can be moved in this direction. Thereby, it can suppress that the quantity of the outer peripheral surface removed by the removal process part is insufficient.

Thus, even when the position of the center axis of the supported rotating body changes with the rotation of the supported rotating body, the amount of the outer peripheral surface removed by the removal processing unit can be appropriately controlled. . As a result, fluctuations in the radius of curvature of the outer peripheral surface of the supported rotating body can be suppressed.
Next, the processing apparatus of the first embodiment will be described in detail with reference to FIGS. 3 to 11.

(Constitution)
As shown in FIGS. 3 and 4, the processing apparatus 1 is supported by a plurality (two in this example) of support rotating bodies 501 and 502, and is rotated by the plurality of supporting rotating bodies 501 and 502. The removal process which removes at least one part of the outer peripheral surface of the to-be-supported rotary body 6 which rotates with it is performed.

  In this example, the supported rotating body 6 includes a rotary kiln including a hollow cylindrical body 601 and an annular tire 602 that is fixed to the outer peripheral surface of the body 601 and whose center axis coincides with the center axis of the body 601. It is.

  Each of the plurality of support rotating bodies 501 and 502 has a columnar shape whose center axis extends along the center axis of the supported rotating body 6. In the present example, the plurality of support rotating bodies 501 and 502 have the same diameter while the central axis is located in the same plane. Each of the plurality of support rotators 501 and 502 is driven to rotate with the central axis of the support rotators 501 and 502 as the central axis of rotation. The support rotating bodies 501 and 502 may be expressed as support rollers 501 and 502.

  The tire 602 is supported by a plurality of support rotating bodies 501 and 502. The tire 602 rotates by rolling with the rotation of the plurality of support rotating bodies 501 and 502. In this example, the outer peripheral surface of the tire 602 corresponds to the outer peripheral surface of the supported rotating body 6. The supported rotating body 6 may be a rotating body other than the rotary kiln (for example, a rotary dryer or a drum pulper).

3 and 4, the supported rotating body 6 is illustrated only in the vicinity of the tire 602. The supported rotating body 6 includes other tires (not shown), and each tire included in the supported rotating body 6 is supported by another supporting rotating body (not shown).
The processing device 1 may constitute a part of a rotating body device including a plurality of supporting rotating bodies 501 and 502 and a supported rotating body 6.

  Hereinafter, as shown in FIGS. 3 to 11, the processing apparatus 1 will be described using a right-handed orthogonal coordinate system having an x-axis, a y-axis, and a z-axis. 5 to 11, the plurality of support rotating bodies 501 and 502 and the supported rotating body 6 are not shown.

  In this example, the x-axis direction, the y-axis direction, and the z-axis direction may be represented as the front-rear direction of the processing apparatus 1, the left-right direction of the processing apparatus 1, and the up-down direction of the processing apparatus 1, respectively. In this example, the positive direction of the x axis, the negative direction of the x axis, the positive direction of the y axis, the negative direction of the y axis, the positive direction of the z axis, and the negative direction of the z axis are The direction, the backward direction of the processing device 1, the left direction of the processing device 1, the right direction of the processing device 1, the upward direction of the processing device 1, and the downward direction of the processing device 1 may be represented.

  In this example, the y-axis direction coincides with the direction in which the central axis of the supported rotating body 6 extends. In this example, the positive direction of the z-axis and the negative direction of the z-axis substantially coincide with the vertically upward direction and the vertically downward direction, respectively.

  3 and 6 are views of the processing device 1 viewed from the position on the right side of the processing device 1, behind the processing device 1, and above the processing device 1 (in other words, the upper right rear) Perspective view). 4, 8, 10, and 11 are views (in other words, right side views) of the processing device 1 as viewed from the right side of the processing device 1.

  FIG. 5 is a view (in other words, a front right upper perspective view) of the processing device 1 viewed from a position on the right side of the processing device 1, in front of the processing device 1 and above the processing device 1. is there. FIG. 7 is a view (in other words, a rear view) of the processing device 1 as viewed from the rear of the processing device 1. FIG. 9 is a view (in other words, a front view) of the processing device 1 as viewed from the front of the processing device 1.

  As shown in FIG. 4, when the supported rotating body 6 is viewed in the positive direction of the y-axis, each of the plurality of supporting rotating bodies 501 and 502 rotates in the counterclockwise directions D1 and D2. To do. When the supported rotating body 6 is viewed in the positive direction of the y-axis, the supported rotating body 6 rotates in the clockwise direction D0.

  As shown in FIG. 4, the processing apparatus 1 has a position in the negative direction of the x axis of the outer peripheral surface of the supported rotating body 6 rather than a position where the outer peripheral surface is in contact with the supporting rotating body 501. In other words, in this example, the processing apparatus 1 is downstream of the outer peripheral surface of the supported rotating body 6 in the rotational direction D0 of the supported rotating body 6 with respect to the position where the outer peripheral surface is in contact with the supporting rotating body 501. Removal processing is performed at the position.

  According to this, the operator can be prevented from being caught between the supported rotating body 6 and the supporting rotating body 501, so that the safety of the operator can be improved. Moreover, since it can suppress that the waste etc. which are produced | generated by removal processing enter between the supported rotary body 6 and the support rotary body 501, it is damaged that the outer peripheral surface of the supported rotary body 6 and the support rotary body 501 is damaged. Can be suppressed.

  The processing apparatus 1 may have a position in the positive direction of the x axis of the outer peripheral surface of the supported rotating body 6 rather than a position where the outer peripheral surface is in contact with the supporting rotating body 502. In other words, the processing apparatus 1 is located at a position upstream of the outer peripheral surface of the supported rotating body 6 in the rotational direction D0 of the supported rotating body 6 with respect to the position where the outer peripheral surface is in contact with the support rotating body 502. Removal processing may be performed.

The processing apparatus 1 includes a removal processing unit 100, a displacement mechanism unit 200, and an urging unit 300.
The removal processing unit 100 performs the removal processing by contacting the outer peripheral surface of the supported rotating body 6. In this example, the removal process is cutting. The removal process may be grinding or polishing.

As illustrated in FIGS. 5 and 6, the removal processing unit 100 includes a drive unit 110 and a tool unit 120.
The drive unit 110 drives the tool unit 120. The drive unit 110 is fixed to a support surface of a support body 220 described later.

  As shown in FIGS. 4 and 8, the tool unit 120 is in a direction orthogonal to the central axis CA of the supported rotating body 6 on a reference plane RP that is a plane passing through the central axis CA of the supported rotating body 6 ( In other words, it extends along the radial direction with respect to the central axis CA of the supported rotating body 6.

  In this example, the reference plane RP is a plane orthogonal to the z-axis so that the position in the z-axis direction within the reference plane RP changes in the positive direction of the z-axis toward the positive direction of the x-axis (in other words, , Xy plane). In other words, in this example, the tool unit 120 performs the removal process at a position vertically below the horizontal plane passing through the central axis CA of the supported rotating body 6.

  In this example, the tool part 120 is in a state in which the end part (in other words, the tip part) closer to the center axis CA of the supported rotating body 6 in the tool part 120 is in contact with the outer peripheral surface of the supported rotating body 6. The removal process is performed by being driven by the drive unit 110.

  The tool part 120 includes a tool for performing removal processing. In this example, the tool part 120 includes a milling cutter. Note that the tool unit 120 may include a cutting tool other than a milling cutter. Moreover, the tool part 120 may include a grinding tool or a polishing tool (for example, a grindstone, a polishing belt, an endless paper, an endless belt, or the like) instead of the cutting tool.

  The removal processing unit 100 may include a tool (for example, a bite or the like) that performs the removal processing without being driven instead of the driving unit 110 and the tool unit 120.

  The displacement mechanism unit 200 supports the removal processing unit 100. The displacement mechanism unit 200 is configured to move the supported rotating body 6 in a direction perpendicular to the central axis CA of the supported rotating body 6 (in this example, a direction including a radial component with respect to the central axis CA of the supported rotating body 6). As the outer peripheral surface moves, the position of the removal processing unit 100 can be changed in the direction.

  As shown in FIGS. 5 to 8, the displacement mechanism unit 200 includes a pair of housing unit constituting bodies 210, a support body 220, a first rolling unit 230, a second rolling unit 240, and a connection unit. 250 and a first pedestal 260.

  A pair of housing part structure 210 opposes each other in the y-axis direction. In this example, each of the pair of housing unit structures 210 has a flat plate shape orthogonal to the y-axis. As shown in FIG. 8, each of the pair of housing unit structures 210 extends along the rotation direction of the supported rotating body 6 when the housing unit structure 210 is viewed in the y-axis direction. The both end portions in the rotation direction of the supported rotating body 6 in the housing portion constituting body 210 are supported to rotate more than the central portion in the rotating direction of the supported rotating body 6 in the housing portion constituting body 210. It has a position close to the central axis CA of the body 6.

  In this example, each of the pair of housing unit structures 210 is U-shaped when the housing unit structure 210 is viewed in the y-axis direction. In addition, each of a pair of housing part structure 210 has a shape other than the U-shape (for example, a C shape or a U shape) when the housing part structure 210 is viewed in the y-axis direction. It may be.

  The pair of housing portion constituting bodies 210 is supported by the connecting portion 250 so as to be swingable so that the swing center axis RA1 extends in the y-axis direction. In this example, the central axis RA1 of the swinging of the pair of housing unit structures 210 has a position vertically below the reference plane RP.

  As shown in FIGS. 5 to 8, the support body 220 has a flat plate shape having a support surface parallel to the reference plane RP. The support body 220 is fixed to the pair of housing part structural bodies 210 so as to be bridged between the pair of housing body structural bodies 210.

  The support body 220 is configured to be able to change the position of the removal processing unit 100 on the support surface. In this example, the support 220 has a guide rail and a feed screw mechanism (not shown), is configured to be able to move the removal processing unit 100 along the guide rail, and uses the feed screw mechanism to remove the processing unit 100. It is configured to be adjustable. Note that the support body 220 may be configured such that the amount of movement of the removal processing unit 100 can be adjusted using a mechanism other than the feed screw mechanism (for example, a cylinder-type moving mechanism or a chain-type moving mechanism). Good.

  In this example, the length of the support surface in the y-axis direction is longer than the length of the tire 602 in the y-axis direction. In this example, by changing the position of the removal processing unit 100, the support 220 can contact the outer peripheral surface of the tip of the tool unit 120 over the entire outer peripheral surface of the tire 602 in the y-axis direction. Configured to be. In other words, the distance at which the position of the tip of the tool part 120 can be changed in the y-axis direction is longer than the length of the tire 602 in the y-axis direction.

The first rolling unit 230 includes a first shaft body 231 and a first rolling body 232.
The first shaft body 231 has a cylindrical shape extending in the y-axis direction. The first shaft body 231 is fixed to the pair of housing part structural bodies 210 so as to be bridged between the pair of housing body structural bodies 210. The first shaft body 231 is one end in the rotation direction of the supported rotating body 6 (in this example, the end on the downstream side in the rotation direction of the supported rotating body 6) of the pair of housing portion constituting bodies 210. ). In other words, the first shaft body 231 is located at the end portion in the vertically upward direction of both ends in the rotation direction of the supported rotating body 6 in the pair of housing portion constituting bodies 210.

  The first rolling element 232 is supported by the first shaft body 231 so as to be rotatable so that the central axis of rotation extends in the y-axis direction. The first rolling element 232 rolls as the supported rotating body 6 rotates by contacting the outer peripheral surface of the supported rotating body 6. In this example, the first rolling element 232 is a cylindrical roller extending in the y-axis direction. The first rolling element 232 may have a shape other than a cylindrical shape (for example, a spherical shape).

  In the present example, the first rolling element 232 is supported at the center of the first shaft body 231 in the y-axis direction. Moreover, the 1st rolling element 232 may be supported by the 1st shaft body 231 so that a position can be changed in the y-axis direction.

The second rolling unit 240 includes a second shaft body 241 and a second rolling body 242.
The second shaft body 241 has a cylindrical shape extending in the y-axis direction. The second shaft body 241 is fixed to the pair of housing part structural bodies 210 so as to be bridged between the pair of housing body structural bodies 210. The second shaft body 241 is the other end portion in the rotation direction of the supported rotating body 6 (in this example, the upstream end portion in the rotation direction of the supported rotating body 6) of the pair of housing portion constituting bodies 210. ). In other words, the second shaft body 241 is located at the end portion in the vertically downward direction at both ends in the rotation direction of the supported rotating body 6 in the pair of housing portion constituting bodies 210.

  The second rolling element 242 is supported by the second shaft body 241 so as to be rotatable so that the central axis of rotation extends in the y-axis direction. The second rolling element 242 rolls with the rotation of the supported rotating body 6 by contacting the outer peripheral surface of the supported rotating body 6. In this example, the second rolling element 242 is a cylindrical roller extending in the y-axis direction. In addition, the 2nd rolling element 242 may be shapes (for example, spherical shape etc.) other than column shape.

  In the present example, the second rolling element 242 is supported at the center of the second shaft body 241 in the y-axis direction. Moreover, the 2nd rolling element 242 may be supported by the 2nd shaft body 241 so that a position can be changed in the y-axis direction.

  As shown in FIGS. 4 and 8, the first rolling element 232 and the second rolling element 242 are positioned so as to sandwich the tool part 120 in the rotation direction (in other words, the circumferential direction) of the supported rotating body 6. To do. Furthermore, when the first rolling element 232 and the second rolling element 242 are in contact with the outer peripheral surface of the supported rotating body 6, the first rolling element 232 and the second rolling element 242 are connected to the outer peripheral surface of the tool portion 120. And a position on an arc having a predetermined radius. In this example, the radius of the arc is substantially equal to the radius of the outer peripheral surface of the supported rotating body 6.

As illustrated in FIG. 6, the connection unit 250 includes a pair of end structure bodies 251, a coupling body 252, and a connection body 253.
The pair of end structure members 251 face each other in the y-axis direction. In the present example, each of the pair of end structure bodies 251 has a flat plate shape orthogonal to the y-axis. The pair of end structure members 251 are adjacent to the pair of housing structure members 210, respectively.

  In this example, the pair of end structure members 251 are adjacent to the pair of housing structure members 210 so as to sandwich the pair of housing structure members 210 in the y-axis direction. In other words, the pair of end structure members 251 configures both end portions in the y-axis direction of the displacement mechanism unit 200.

  As shown in FIG. 8, the pair of end structure members 251 is supported by the first pedestal portion 260 so as to be swingable so that the swing center axis RA2 extends in the y-axis direction. In this example, the center axis RA2 of the swing of the pair of end portion structures 251 has a vertically lower position than the center axis RA1 of the swing of the pair of housing part structures 210.

  The pair of end structure members 251 is paired when the swing angle of the pair of housing structure members 210 is a predetermined angle so as to limit the swingable range of the pair of housing structure members 210. A pair of locking portions that respectively come into contact with the casing portion constituting body 210 may be provided.

  As illustrated in FIG. 6, the connecting body 252 is fixed to the pair of end portion structures 251 so as to be bridged between the pair of end section structures 251. In other words, the connecting body 252 extends between the pair of end structure bodies 251, and both ends are fixed to the pair of end structure bodies 251. In this example, the connecting body 252 has a cylindrical shape extending in the y-axis direction.

  The connecting body 253 has one end portion slidably connected to the connecting body 252 so that the center axis of swinging extends in the y-axis direction, and the center axis of swinging extends in the y-axis direction. As described above, the other end is connected to the urging portion 300 so as to be swingable. In this example, the connection body 253 is located in the center part in the y-axis direction of the connection body 252.

  The first pedestal portion 260 includes a main body 261 and a pair of extending bodies 262. In this example, the main body 261 has a rectangular parallelepiped shape.

  The pair of extending bodies 262 extend from the end face of the main body 261 in the positive direction of the z axis in the positive direction of the z axis. The pair of extending bodies 262 oppose each other in the y-axis direction. In this example, each of the pair of extending bodies 262 has a flat plate shape orthogonal to the y-axis. The pair of extending bodies 262 are adjacent to the pair of end structure bodies 251, respectively.

  In the present example, the pair of extending bodies 262 are adjacent to the pair of end structure bodies 251 so as to sandwich the pair of end structure bodies 251 in the y-axis direction. The pair of extending bodies 262 support the pair of end structure members 251 at the ends of the pair of extending bodies 262 in the positive direction of the z-axis.

  It should be noted that the pair of extending bodies 262 are paired when the swing angle of the pair of end structure members 251 is a predetermined angle so as to limit the range in which the pair of end structure members 251 can swing. You may provide a pair of latching | locking part each contact | abutted with the edge part structure 251. FIG.

  The urging unit 300 urges the removal processing unit 100 toward the outer peripheral surface of the supported rotating body 6 via the displacement mechanism unit 200. As illustrated in FIG. 6, the urging unit 300 includes an urging force generation unit 310 and a second pedestal unit 320.

  In this example, as shown in FIG. 8, the urging unit 300 swings the pair of end configuration members 251 and the central axis RA2 when the processing apparatus 1 is viewed in the positive direction of the y-axis. The connecting portion 250 is urged in a direction to swing in the clockwise direction D3 as the central axis of the.

  As shown in FIG. 6, the urging force generator 310 has one end that is swingably connected to the connecting body 253 so that the center axis of the swing extends in the y-axis direction, and The other end is swingably supported by the second pedestal 320 so that the center axis of the movement extends in the y-axis direction.

  The biasing force generation unit 310 can change the distance between both ends of the biasing force generation unit 310. The urging force generation unit 310 generates a force to extend the distance between both ends of the urging force generation unit 310 as the urging force. The biasing force generation unit 310 is configured to generate a biasing force within a predetermined range even when the distance between both ends of the biasing force generation unit 310 changes.

  In this example, the urging force generator 310 includes a fluid pressure cylinder that generates an urging force using the pressure of the working fluid. In this example, the working fluid is air. The working fluid may be a gas other than air or a liquid (for example, oil). For example, the urging force generator 310 may be connected to an adjustment device (not shown) (for example, a pump, a compressor, or a regulator) for adjusting the urging force.

  Further, the urging force generation unit 310 may generate the urging force using a force (for example, an elastic force) other than the pressure of the working fluid. For example, the urging force generation unit 310 may generate the urging force using a spring.

  The urging force generator 310 and the connecting body 253 have a predetermined swing angle of the connecting body 253 with respect to the urging force generator 310 so as to limit a range in which the connecting body 253 can swing with respect to the urging force generator 310. A pair of locking portions that come into contact with each other in the case of an angle may be provided.

  In the present example, the second pedestal portion 320 has a rectangular parallelepiped shape. The second pedestal 320 supports the urging force generator 310 at the end of the second pedestal 320 in the positive direction of the z-axis. Note that the second pedestal portion 320 may be integrated with the main body 261 of the first pedestal portion 260. Moreover, the number of the urging | biasing parts 300 with which the processing apparatus 1 is provided may be two or more.

(Operation)
Next, operation | movement of the processing apparatus 1 of 1st Embodiment is demonstrated.
The plurality of support rotators 501 and 502 are driven to rotate with the central axis of the support rotators 501 and 502 as the central axis of rotation. The supported rotating body 6 rotates when the tire 602 rolls with the rotation of the plurality of supporting rotating bodies 501 and 502.

  As shown in FIG. 8, the urging unit 300 of the machining apparatus 1 swings the pair of end portion structures 251 and the central axis RA2 when the machining apparatus 1 is viewed in the positive direction of the y-axis. The connecting portion 250 is urged in a direction to swing in the clockwise direction D3 as the central axis of the.

  As a result, the pair of housing part constituting bodies 210 is urged toward the outer peripheral surface of the supported rotating body 6. As a result, the first rolling element 232 and the second rolling element 242 are in contact with the outer peripheral surface of the supported rotating body 6. Therefore, the first rolling element 232 and the second rolling element 242 rotate by rolling with the rotation of the supported rotating body 6.

  Moreover, the tool part 120 of the processing apparatus 1 is driven by the drive part 110. Therefore, the tool part 120 removes the part of the outer peripheral surface of the supported rotating body 6 that contacts the tip part of the tool part 120.

  In this way, the processing apparatus 1 performs removal processing while the supported rotating body 6 is rotating. In this example, the processing apparatus 1 performs the removal processing over the entire outer peripheral surface of the supported rotating body 6 by moving the removal processing unit 100 in the y-axis direction every time a predetermined processing time elapses. Do.

  For example, the convex portion formed on the outer circumferential surface of the supported rotating body 6 comes into contact with the supporting rotating body 502 and the outer circumferential surface of the supported rotating body 6 is moved from the reference position OS0 as shown in FIG. When the position OS1 is also in the negative direction of the x axis (in other words, the outer peripheral surface of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the center axis CA of the supported rotating body 6 is shortened). Is assumed to move with the rotation of the supported rotating body 6). In this case, the first rolling element 232, the second rolling element 242, and the tool part 120 are pressed by the outer peripheral surface of the supported rotating body 6.

  Thereby, when the processing apparatus 1 is viewed in the positive direction of the y-axis, the pair of end structure bodies 251 swings in the counterclockwise direction D4 with the central axis RA2 as the central axis of swinging. The urging unit 300 shortens the distance between both ends of the urging force generation unit 310.

  As a result, the position of the tip of the tool part 120 is changed as the outer peripheral surface of the supported rotating body 6 moves. In other words, the position of the tip of the tool part 120 is changed so as to follow the movement of the outer peripheral surface of the supported rotating body 6. Therefore, it is possible to suppress the amount of the outer peripheral surface of the supported rotating body 6 that is removed by the removal processing unit 100 from being excessive.

  Further, for example, as shown in FIG. 11, when the concave portion formed on the outer peripheral surface of the supported rotating body 6 is in contact with the supporting rotating body 502, the outer peripheral surface of the supported rotating body 6 is at the reference position OS <b> 0. (In other words, the outer circumference of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the central axis CA of the supported rotating body 6 becomes longer). Suppose that the surface moves with the rotation of the supported rotating body 6). In this case, when the urging unit 300 extends the distance between both ends of the urging force generation unit 310 and the processing device 1 is viewed in the positive direction of the y-axis, the pair of end components 251 swings in the clockwise direction D5 with the central axis RA2 as the central axis of swinging.

  As a result, the position of the tip of the tool part 120 is changed as the outer peripheral surface of the supported rotating body 6 moves. In other words, the position of the tip of the tool part 120 is changed so as to follow the movement of the outer peripheral surface of the supported rotating body 6. Therefore, it is possible to suppress an insufficient amount of the outer peripheral surface of the supported rotating body 6 that is removed by the removal processing unit 100.

  As described above, the processing apparatus 1 according to the first embodiment includes the removal processing unit 100, the displacement mechanism unit 200, and the urging unit 300. The removal processing unit 100 performs the removal processing by contacting the outer peripheral surface of the supported rotating body 6. The displacement mechanism unit 200 supports the removal processing unit 100 and positions the removal processing unit 100 in accordance with the movement of the outer peripheral surface of the supported rotating body 6 in the direction orthogonal to the central axis CA of the supported rotating body 6. It can be changed in this direction. The urging unit 300 urges the removal processing unit 100 toward the outer peripheral surface of the supported rotating body 6.

  According to this, the outer peripheral surface of the supported rotating body 6 is rotated with the rotation of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the central axis CA of the supported rotating body 6 is shortened. When it moves, the removal process part 100 can be moved in the said direction. Thereby, it can suppress that the quantity of the outer peripheral surface of the to-be-supported rotary body 6 removed by the removal process part 100 becomes excessive.

  Further, when the outer peripheral surface of the supported rotating body 6 moves with the rotation of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the central axis CA of the supported rotating body 6 becomes longer. The removal processing unit 100 can be moved in this direction. Thereby, it can suppress that the quantity of the outer peripheral surface of the supported rotating body 6 removed by the removal process part 100 is insufficient.

  Thus, even if the position of the center axis CA of the supported rotating body 6 changes as the supported rotating body 6 rotates, the outer periphery of the supported rotating body 6 is removed by the removal processing unit 100. The amount of the surface can be controlled appropriately. As a result, fluctuations in the radius of curvature of the outer peripheral surface of the supported rotating body 6 can be suppressed.

  Furthermore, in the processing apparatus 1 of the first embodiment, the displacement mechanism unit 200 is in contact with the outer peripheral surface of the supported rotating body 6 and rolls as the supported rotating body 6 rotates, and the first rolling element 232 and A second rolling element 242 is provided.

  According to this, the outer peripheral surface of the supported rotating body 6 is rotated with the rotation of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the central axis CA of the supported rotating body 6 is shortened. When moved, the force by which the removal processing unit 100 is pressed against the outer peripheral surface of the supported rotating body 6 can be distributed to the first rolling element 232 and the second rolling element 242. Therefore, it is possible to suppress the removal processing unit 100 from being damaged by applying an excessive force to the removal processing unit 100.

  Furthermore, in the processing apparatus 1 of the first embodiment, the removal processing unit 100 includes the first rolling element when the first rolling element 232 and the second rolling element 242 are in contact with the outer peripheral surface of the supported rotating body 6. Each of H.232 and the second rolling element 242 has a position on an arc passing through a position in contact with the outer peripheral surface and having a predetermined radius.

  According to this, the removal processing unit 100 is more than the radius of the arc passing through the position where each of the first rolling element 232 and the second rolling element 242 contacts the outer peripheral surface of the outer peripheral surface of the supported rotating body 6. It touches a portion with a small radius of curvature, while it does not touch a portion with a radius of curvature larger than the radius of the arc. Thereby, the fluctuation | variation of the curvature radius of the outer peripheral surface of the to-be-supported rotary body 6 can be suppressed.

  Furthermore, in the processing apparatus 1 of the first embodiment, the first rolling element 232 and the second rolling element 242 sandwich the removal processing unit 100 in the rotation direction of the supported rotating body 6 (in other words, the circumferential direction). In addition, the displacement mechanism unit 200 is supported so as to be swingable so that the center axis of the swing extends along the center axis CA of the supported rotating body 6.

  When the concave or convex portion on the outer peripheral surface of the supported rotating body 6 is in contact with only one of the first rolling element 232 and the second rolling element 242, the distance the removal processing unit 100 moves is the concave or convex part. However, it becomes shorter than the case where it contacts with both the 1st rolling element 232 and the 2nd rolling element 242. Thereby, the fluctuation | variation of the curvature radius of the outer peripheral surface of the to-be-supported rotary body 6 can be suppressed.

  Furthermore, in the processing apparatus 1 of the first embodiment, each of the first rolling element 232 and the second rolling element 242 is rotatable so that the central axis of rotation extends along the central axis CA of the supported rotating body 6. Including supported rollers.

  According to this, the 1st rolling element 232 and the 2nd rolling element 242 can be rolled smoothly with rotation of the supported rotating body 6.

  Furthermore, in the processing apparatus 1 according to the first embodiment, the displacement mechanism unit 200 can change the position of the removal processing unit 100 in the direction along the central axis CA of the supported rotating body 6.

  According to this, while supporting the change of the position of the removal processing part 100 with the rotation of the supported rotating body 6 in the direction orthogonal to the central axis CA of the supported rotating body 6, the supported rotating body is maintained. The removal processing unit 100 can be moved in a direction along the center axis CA of six. Therefore, fluctuations in the direction along the central axis CA of the supported rotating body 6 in the radius of curvature of the outer peripheral surface of the supported rotating body 6 can be suppressed.

  Further, in the processing apparatus 1 according to the first embodiment, the displacement mechanism unit 200 includes a pair of end structure bodies 251 and a connecting body 252. The pair of end structure bodies 251 constitute both end portions in the direction along the central axis CA of the supported rotating body 6 in the displacement mechanism section 200 and face each other in the direction. In addition, the connecting body 252 extends between the pair of end structure bodies 251 and both ends are fixed to the pair of end structure bodies 251.

  By the way, a force for deforming the displacement mechanism 200 may be applied. For example, when the positions of the first rolling element 232, the second rolling element 242, and the removal processing unit 100 in the direction along the central axis CA of the supported rotating body 6 are different from each other, this force tends to increase.

  On the other hand, according to the processing apparatus 1, since the rigidity of the displacement mechanism unit 200 can be increased by the coupling body 252, deformation of the displacement mechanism unit 200 can be suppressed. As a result, variation in the radius of curvature of the outer peripheral surface of the supported rotating body 6 can be suppressed with high accuracy.

Second Embodiment
Next, the processing apparatus of 2nd Embodiment is demonstrated. The processing apparatus of the second embodiment is different from the processing apparatus of the first embodiment in that each rolling part includes a pair of rolling elements. Hereinafter, the difference will be mainly described. In addition, in description of 2nd Embodiment, what attached | subjected the code | symbol same as the code | symbol used in 1st Embodiment is the same or substantially the same.

Hereinafter, as shown in FIGS. 12 and 13, the machining apparatus 1 </ b> A of the second embodiment will be described using a right-handed orthogonal coordinate system similar to that of the first embodiment. In FIGS. 12 and 13, the plurality of support rotating bodies 501 and 502 and the supported rotating body 6 are not shown.
FIG. 12 is a right front upper perspective view of the processing apparatus 1A. FIG. 13 is a right side view of the processing apparatus 1A.

The first rolling part 230 of the second embodiment includes a first rolling element part 233 instead of the first rolling element 232 of the first embodiment.
The first rolling element part 233 includes a pair of support part constituting bodies 2331, a pair of third shaft bodies 2332, and a pair of first rolling elements 2333. In the present example, the pair of support part constituting bodies 2331 and the pair of third shaft bodies 2332 correspond to support parts.

  A pair of support part structure 2331 opposes each other in the y-axis direction. In the present example, each of the pair of support portion constituting bodies 2331 has a flat plate shape orthogonal to the y-axis. As illustrated in FIG. 13, each of the pair of support member structures 2331 extends along the rotation direction of the supported rotating body 6 when the support member structure 2331 is viewed in the y-axis direction.

  Each of the pair of support portion constituting bodies 2331 has a central portion of the support portion constituting body 2331 in the rotational direction of the supported rotating body 6 so that the central axis of the swing extends in the y-axis direction. The uniaxial body 231 is supported so as to be swingable.

  Each of the pair of third shaft bodies 2332 has a columnar shape extending in the y-axis direction. Each of the pair of third shaft bodies 2332 is fixed to the pair of support portion constituting bodies 2331 so as to be bridged between the pair of support portion constituting bodies 2331. The pair of third shaft bodies 2332 are located at both ends of the pair of supporting portion constituting bodies 2331 in the rotation direction of the supported rotating body 6.

  Each of the pair of first rolling elements 2333 is supported by the pair of third shaft bodies 2332 so that the center axis of rotation extends in the y-axis direction. Each of the pair of first rolling elements 2333 comes into contact with the outer peripheral surface of the supported rotating body 6 and rolls along with the rotation of the supported rotating body 6. In this example, each of the pair of first rolling elements 2333 is a cylindrical roller extending in the y-axis direction. In addition, each of a pair of 1st rolling elements 2333 may be shapes (for example, spherical shape etc.) other than column shape.

  In the present example, the first rolling element portion 233 is supported by the central portion of the first shaft body 231 in the y-axis direction. Moreover, the 1st rolling element part 233 may be supported by the 1st shaft body 231 so that a position can be changed in the y-axis direction.

  The 2nd rolling part 240 of 2nd Embodiment replaces with the 2nd rolling element 242 of 1st Embodiment, and is provided with the 2nd rolling element part 243. Similar to the first rolling element portion 233, the second rolling element portion 243 includes a pair of support portion constituting bodies 2431, a pair of fourth shaft bodies 2432, and a pair of second rolling elements 2433. Note that the second rolling element portion 243 is configured in the same manner as the first rolling element portion 233 except that it is supported by the second shaft body 241, and thus the description thereof is omitted.

  As shown in FIG. 13, the pair of first rolling elements 2333 and the pair of second rolling elements 2433 sandwich the tool part 120 in the rotation direction of the supported rotating body 6 (in other words, the circumferential direction). Is located. Further, the tip of the tool unit 120 includes a pair of first rolling elements 2333 and a pair of first rolling elements 2333 and a pair of second rolling elements 2433 in contact with the outer peripheral surface of the supported rotating body 6. The pair of second rolling elements 2433 has a position on an arc passing through a position in contact with the outer peripheral surface and having a predetermined radius. In this example, the radius of the arc is substantially equal to the radius of the outer peripheral surface of the supported rotating body 6.

As described above, according to the processing apparatus 1A of the second embodiment, the same operations and effects as the processing apparatus 1 of the first embodiment are exhibited.
Furthermore, the processing apparatus 1A according to the second embodiment includes a support portion (in this example, a center portion that is swingably supported so that the swing center axis extends along the center axis CA of the supported rotating body 6). A pair of support portion constituting bodies 2331 and 2431 and a pair of shaft bodies 2332 and 2432) are provided. In addition, the processing apparatus 1A includes a pair of rolling elements 2333 and 2433 that are rotatably supported at both ends of the support portion so that the rotation center axis extends along the center axis CA of the supported rotation body 6. Including.

  According to this, when the concave portion or the convex portion on the outer peripheral surface of the supported rotating body 6 has a size in contact with only one of the pair of rolling elements 2333 and 2433, the concave portion or the convex portion is caused by the swinging of the supporting portion. The movement of the removal processing part 100 by the part can be suppressed. On the other hand, when the concave portion or the convex portion has a size in contact with both the pair of rolling elements 2333 and 2433, the removal processing unit 100 is sufficiently moved by the concave portion or the convex portion. As a result, the fluctuation | variation based on the recessed part or convex part sufficiently small with respect to the distance between a pair of rolling elements 2333 and 2433 of the curvature radius of the outer peripheral surface of the supported rotating body 6 can be suppressed.

<Third Embodiment>
Next, the processing apparatus of 3rd Embodiment is demonstrated. The machining apparatus of the third embodiment is different from the machining apparatus of the second embodiment in the mechanism for changing the position of the removal processing portion. Hereinafter, the difference will be mainly described. In addition, in description of 3rd Embodiment, what attached | subjected the code | symbol same as the code | symbol used in 2nd Embodiment is the same or substantially the same.

  Hereinafter, as shown in FIGS. 14 to 20, the machining apparatus 1 </ b> B of the third embodiment will be described using a right-handed orthogonal coordinate system similar to that of the second embodiment. 14 to 20, the plurality of support rotating bodies 501 and 502 and the supported rotating body 6 are not shown.

  FIG. 14 is a right front upper perspective view of the processing apparatus 1B. FIG. 15 is a right rear upper perspective view of the processing apparatus 1B. 16, 19 and 20 are right side views of the processing apparatus 1B. FIG. 17 is a front view of the processing apparatus 1B. 18 is a view of a cross section of the processing apparatus 1B cut along a plane represented by a line XVIII-XVIII in FIG. 17 as viewed in the positive direction of the y-axis.

  The processing apparatus 1B of the third embodiment replaces the connection portion 250, the first pedestal portion 260, and the urging portion 300 of the second embodiment with a connection portion 250B, a pedestal portion 270, and an urging portion 300B. Is provided.

As illustrated in FIGS. 14 to 18, the connection portion 250 </ b> B includes a pair of end structure bodies 251 and a coupling body 252.
The pair of end structure members 251 face each other in the y-axis direction. In the present example, each of the pair of end structure bodies 251 has a flat plate shape orthogonal to the y-axis. The pair of end structure members 251 are adjacent to the pair of housing structure members 210, respectively.

  In this example, the pair of end structure members 251 are adjacent to the pair of housing structure members 210 so as to sandwich the pair of housing structure members 210 in the y-axis direction. In other words, the pair of end structure members 251 configures both end portions in the y-axis direction of the displacement mechanism unit 200.

  As shown in FIG. 16, the pair of end structure members 251 supports the pair of housing member structure members 210 so that the rocking central axis RA1 extends in the y-axis direction. In this example, the central axis RA1 of the swinging of the pair of housing unit structures 210 has a position vertically below the reference plane RP.

  As shown in FIGS. 14 and 15, the connecting body 252 is fixed to the pair of end part structures 251 so as to be bridged between the pair of end part structures 251. In other words, the connecting body 252 extends between the pair of end structure bodies 251, and both ends are fixed to the pair of end structure bodies 251. In this example, the connecting body 252 has a cylindrical shape extending in the y-axis direction.

  As illustrated in FIG. 16, the connecting body 252 is rotatably supported by the pedestal portion 270 such that the rotation center axis RA2 extends in the y-axis direction. In this example, the rotation center axis RA2 of the connecting body 252 has a vertically lower position than the center axis RA1 of the swing of the pair of housing part structures 210.

  With such a configuration, the pair of end structure bodies 251 are fixed to the connecting body 252, so that the connecting body 252 can be rotated with the rotation center axis RA2 of the connecting body 252 being the center axis of the swing. It swings with it.

  As shown in FIGS. 14 to 18, the pedestal portion 270 includes a main body 271, a pair of first extending bodies 272, and a pair of second extending bodies 273. In this example, the main body 271 has a rectangular parallelepiped shape.

  The pair of first extending bodies 272 extends from the end surface of the main body 271 in the positive z-axis direction in the positive z-axis direction. The pair of first extending bodies 272 face each other in the y-axis direction. In this example, each of the pair of first extending bodies 272 has a flat plate shape orthogonal to the y-axis. The pair of first extending bodies 272 are adjacent to both ends of the connecting body 252 in the y-axis direction.

  In this example, the pair of first extending bodies 272 are adjacent to both ends of the connecting body 252 in the y-axis direction so as to sandwich the connecting body 252 in the y-axis direction. The pair of first extending bodies 272 supports the connecting body 252 at the end of the pair of first extending bodies 272 in the positive direction of the z-axis.

  The pair of first extending bodies 272 each have a pair of locking portions 2721. The pair of locking portions 2721 protrude from the pair of first extending bodies 272 in the y-axis direction, respectively. When the rocking angle of the pair of end portion structures 251 is a predetermined angle, the pair of locking portions 2721 come into contact with the pair of end portion structures 251, respectively. Limit the swing range.

  The pair of second extending bodies 273 extends from the end face of the main body 271 in the positive z-axis direction in the positive z-axis direction. The pair of second extending bodies 273 face each other in the y-axis direction. In this example, each of the pair of second extending bodies 273 has a flat plate shape orthogonal to the y-axis. The pair of second extending bodies 273 supports the urging unit 300B.

  The urging unit 300 </ b> B urges the removal processing unit 100 toward the outer peripheral surface of the supported rotating body 6 via the displacement mechanism unit 200. As illustrated in FIGS. 14 to 18, the urging unit 300 </ b> B includes a pair of urging force generation units 310.

  In this example, as shown in FIG. 16, the urging unit 300B swings the pair of end component bodies 251 and the central axis RA2 when the processing apparatus 1B is viewed in the positive direction of the y-axis. The pair of housing part constituting bodies 210 are urged in a direction in which they are intended to be swung in a clockwise direction D6 as a central axis of the pair.

  As shown in FIGS. 14 to 18, the pair of urging force generators 310 swing one end to the pair of housing parts 210 so that the center axis of the swing extends in the y-axis direction. The other end portions are supported by the pair of second extending bodies 273 so as to be swingable, so that each of them is movably connected and the center axis of the swing extends in the y-axis direction.

  Each of the pair of urging force generation units 310 can change the distance between both ends of the urging force generation unit 310. Each of the pair of urging force generation units 310 generates a force that tends to extend the distance between both ends of the urging force generation unit 310 as the urging force. Each of the pair of urging force generation units 310 is configured to generate an urging force within a predetermined range even when the distance between both ends of the urging force generation unit 310 changes.

  In this example, each of the pair of urging force generation units 310 includes a fluid pressure cylinder that generates an urging force using the pressure of the working fluid. In this example, the working fluid is oil. The working fluid may be a liquid other than oil or a gas (for example, air). For example, each of the pair of urging force generation units 310 may be connected to an adjustment device (for example, a pump, a compressor, or a regulator) (not shown) for adjusting the urging force.

  In addition, each of the pair of urging force generation units 310 may generate the urging force using a force (for example, elastic force) other than the pressure of the working fluid. For example, each of the pair of urging force generation units 310 may generate the urging force using a spring.

  In addition, the number of the urging | biasing force production | generation parts 310 with which the urging | biasing part 300B is provided may be one, and may be three or more.

The processing apparatus 1B of the third embodiment operates in the same manner as the processing apparatus 1A of the second embodiment.
For example, when the convex portion formed on the outer peripheral surface of the supported rotating body 6 is in contact with the supporting rotating body 502, the outer peripheral surface of the supported rotating body 6 is moved from the reference position OS0 as shown in FIG. When the position OS1 is also in the negative direction of the x axis (in other words, the outer peripheral surface of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the center axis CA of the supported rotating body 6 is shortened). Is assumed to move with the rotation of the supported rotating body 6). In this case, the pair of first rolling elements 2333, the pair of second rolling elements 2433, and the tool part 120 are pressed by the outer peripheral surface of the supported rotating body 6.

  Thus, when the processing apparatus 1B is viewed in the positive direction of the y-axis, the pair of end structure bodies 251 swings in the counterclockwise direction D7 with the central axis RA2 as the central axis of swinging. The urging unit 300 shortens the distance between both ends of the urging force generation unit 310.

  As a result, the position of the tip of the tool part 120 is changed as the outer peripheral surface of the supported rotating body 6 moves. In other words, the position of the tip of the tool part 120 is changed so as to follow the movement of the outer peripheral surface of the supported rotating body 6. Therefore, it is possible to suppress the amount of the outer peripheral surface of the supported rotating body 6 that is removed by the removal processing unit 100 from being excessive.

  Further, for example, as shown in FIG. 20, when the concave portion formed on the outer peripheral surface of the supported rotating body 6 is in contact with the supporting rotating body 502, the outer peripheral surface of the supported rotating body 6 is moved to the reference position OS 0. (In other words, the outer circumference of the supported rotating body 6 in the direction in which the distance between the removal processing unit 100 and the central axis CA of the supported rotating body 6 becomes longer). Suppose that the surface moves with the rotation of the supported rotating body 6). In this case, when the biasing unit 300 extends the distance between both ends of the biasing force generation unit 310 and the processing device 1B is viewed in the positive direction of the y-axis, a pair of end structure members 251 oscillates in the clockwise direction D8 with the central axis RA2 as the central axis of oscillation.

  As a result, the position of the tip of the tool part 120 is changed as the outer peripheral surface of the supported rotating body 6 moves. In other words, the position of the tip of the tool part 120 is changed so as to follow the movement of the outer peripheral surface of the supported rotating body 6. Therefore, it is possible to suppress an insufficient amount of the outer peripheral surface of the supported rotating body 6 that is removed by the removal processing unit 100.

As described above, according to the processing apparatus 1B of the third embodiment, the same operations and effects as the processing apparatus 1A of the second embodiment are exhibited.
The processing apparatus 1B may include a first rolling element 232 similar to that of the first embodiment, instead of the first rolling element portion 233. Further, the processing apparatus 1B may include a second rolling element 242 similar to that of the first embodiment, instead of the second rolling element unit 243.

<Fourth embodiment>
Next, the processing apparatus of 4th Embodiment is demonstrated. In this example, the removal process may be expressed as smoothing. In this example, the processing device may be expressed as a smoothing device.

(Technical field)
The fourth embodiment relates to a smoothing device and a smoothing method, and more particularly to a smoothing device and a smoothing method for smoothing the surface of a rotary body such as a rotary kiln, a rotary dryer, and a drum pulper.

(Background technology)
Patent Document 1 discloses a simple polishing apparatus that can easily and safely repair a metal tire fixed to the outer periphery of a furnace body of a rotary kiln and uneven wear of a roller that supports the tire. This polishing device is said to press the grindstone against the surface of a metal tire or roller and move it in the axial direction of the metal tire or roller to repair uneven wear and scratches on the metal tire or roller easily and appropriately. Yes.

(Issue to solve)
However, the apparatus disclosed in Patent Document 1 considers that the rotary shaft of a rotary kiln, rotary dryer, drum pulper, etc. (hereinafter simply referred to as “rotary kiln”) may be eccentric during rotation. Because there are not, there are the following problems.

  That is, the rotary kiln is usually supported by the tire portion by a pair of rollers at a plurality of locations, and the axis is not fixed. Therefore, inherently, the rotation shaft can be eccentric. In addition, due to the operation of the rotary kiln, the contact surface between the rotary kiln and the roller (strictly speaking, the contact surface between the tire and the roller of the rotary kiln may be described in this way), but the contact surface is It does not necessarily wear uniformly. For this reason, as wear of the contact surface between the rotary kiln and the roller proceeds, the rotary kiln rotates in an asymmetric shape on the roller.

  In this case, when the grindstone of the polishing apparatus is pressed against the contact surface, the contact surface can be smoothed microscopically but cannot be smoothed macroscopically. In other words, the rotating surface of the rotary kiln is uniformly polished regardless of the unevenness of wear, so that the polished rotary kiln becomes a perfect circle when viewed in cross section along its axis. It won't be finished.

  In addition, the contact surface between the rotary kiln and the roller may be uneven as viewed from a macro perspective. As a result, the rotary kiln rotates more distorted on the roller, and there are concerns about the occurrence of abnormal noise and vibration.

  Further, if the surface of a portion where wear is relatively severe is further polished, the portion becomes thin, which causes the life of the rotary kiln to be shortened. Moreover, if the rotary kiln rotates in an irregular shape as described above, unintended stress / shearing force may be applied to the rotary kiln. As described above, there is a problem in polishing the contact surface between the rotary kiln and the roller by the polishing apparatus of Patent Document 1.

  Then, 4th Embodiment makes it a subject to avoid that said problem generate | occur | produces by devising the position of the cutting part with respect to the contact surface of a rotary kiln and a roller.

  Moreover, 4th Embodiment makes it a subject to smooth the surface of not only a rotary kiln but a rotary body.

(Means for solving the problem)
In order to solve the above problem, the fourth embodiment
Smoothing that smoothes the contact surface between the first rotating body and the second rotating body while rotating the first rotating body whose rotating shaft can be eccentric on a plurality of second rotating bodies whose rotating shaft is not eccentric. A device,
A cutting part for cutting the contact surface;
A regulating part that presses the cutting part against the contact surface and displaces the position of the cutting part following the eccentricity when the first rotating body is eccentric;
Is provided.

  According to the fourth embodiment, when the first rotating shaft is actually decentered, the position of the cutting portion is displaced following the eccentricity. Therefore, the surface corresponding to the long axis in the cross section is cut to the short axis. The corresponding surface can be prevented from being cut. Therefore, the surface of the rotating body can be smoothed so as to be a perfect circle when viewed in a cross section along the axis.

  Specifically, the defining portion contacts the pair of contact rollers that rotate in contact with the upstream and the downstream in the rotation direction of the first rotating body, the contact rollers, and the cutting portion, respectively. An air cylinder that presses against the surface and allows displacement of the position of the cutting portion may be provided. Further, the cutting part and the contact rollers are fixed to each other, and when the first rotating body is eccentric, the positions of the cutting part and the contact rollers are adjusted following the eccentricity. It can be displaced relative to the smoothing device body.

  The first rotating body may be a rotary kiln, and the second rotating body may be a support roller that supports the rotary kiln. In this case, the smoothing process can be performed without stopping the operation of the rotary kiln.

  Thus, when the surface of the pair of contact rollers and the surface of the first or second rotating body are brought into contact with each other, the surface corresponding to the long axis of the first or second rotating body is cut by the cutting portion. However, the surface corresponding to the short axis can be prevented from being cut by the cutting portion, and when the surface of the first or second rotating body is viewed in a cross section along the axis, it is a perfect circle. It can be smoothed to form a shape.

  Note that the cutting portion may be positioned between the pair of contact rollers, that is, in the midstream of the rotation direction. Thereby, the contact surface between the rotating body of the contact roller located on the upstream side and the downstream side in the rotation direction of the first or second rotating body and the contact surface between the cutting portion and the rotating body are converted into the rotating body. With the positional relationship corresponding to the arc after the smoothing process, the surface of the first or second rotating body is stably smoothed so as to be a perfect circle when viewed in a cross section along its axis. Can be

In the fourth embodiment, the first rotating body and the second rotating body are rotated while rotating the first rotating body whose rotating shaft can be eccentric on a plurality of second rotating bodies whose rotating shaft is not eccentric. A smoothing method for smoothing a contact surface,
When the cutting part is pressed against the contact surface and the first rotating body is eccentric, cutting is performed while the position of the cutting part is displaced following the eccentricity.

(Constitution)
The fourth embodiment will be described below with reference to the drawings.

  FIG. 21 is a model diagram illustrating the principle of smoothing by the smoothing device of the fourth embodiment. In FIG. 21, it should be noted that the rotary kiln 10 and the cutting unit 25 are slightly exaggerated for easy understanding.

  Moreover, the rotary kiln 10 is demonstrated as what rotates counterclockwise. In the present embodiment, the term “cutting” is used in a broad sense and includes polishing.

  In FIG. 21A and FIG. 21B, a rotationally asymmetric rotary kiln 10 including a cylindrical portion having an elliptical cross section of an axial center and a pair of support rollers 30A and 30B that support the rotary kiln 10 are shown. Show. In FIG. 21A and FIG. 21B, a long axis corresponding region corresponding to the long axis of the rotary kiln 10 is denoted by a, and a short axis corresponding region corresponding to the short axis of the rotary kiln 10 is denoted by b. The intermediate region between them is denoted by reference symbol c, and the concave region such as a scratch formed on the support roller 30A is denoted by reference symbol d.

  In the state shown in FIG. 21A, the rotary kiln 10 and the recessed area d of the support roller 30A are not in contact with each other. The rotational axis of the rotary kiln 10 and the rotational axes of the support roller 30A and the support roller 30B form a substantially equilateral triangle shape.

  On the other hand, in the state shown in FIG. 21B, which is different from the state shown in FIG. 21A, the rotary kiln 10 and the recessed area d of the support roller 30A are in contact. At this time, the rotation axis of the rotary kiln 10 and the rotation shafts of the support roller 30A and the support roller 30B are substantially equilateral triangles because the rotation axis of the rotary kiln 10 is eccentric by the distance X to the support roller 30A side due to the influence of the recessed region d. No longer forms a shape. The distance X is a solid auxiliary line between FIG. 21 (a) and FIG. 21 (c), and between FIG. 21 (B), FIG. 21 (b) and FIG. 21 (d). Also shown by a solid auxiliary line.

  FIG. 21A to FIG. 21D show the rotary kiln 10 and the cutting portion 25 of the smoothing device 20 (FIG. 22) located in the vicinity of the rotary kiln 10. In the description of FIGS. 21A to 21D, it is assumed that the cutting unit 25 located in the vicinity of the rotary kiln 10 is fixedly arranged unlike the smoothing device 20 of the present embodiment. Explain.

  21A and 21B show the relationship between the rotary kiln 10 and the cutting unit 25 corresponding to the state shown in FIG. That is, in both the state shown in FIGS. 21A and 21B and the state shown in FIG. 21A, the rotating shaft of the rotary kiln 10 is not eccentric. In other words, in this example, in any state shown in FIGS. 21A and 21B, the recessed region d and the support roller 30A are not in contact with each other as in FIG. The rotational axis of the mouth-tally kiln 10 is not eccentric.

  FIGS. 21C and 21D show the relationship between the rotary kiln 10 and the cutting unit 25 corresponding to the state shown in FIG. That is, in both the state shown in FIGS. 21C and 21D and the state shown in FIG. 21B, the rotational axis of the rotary kiln 10 is eccentric by the distance X. In other words, in this example, in any state shown in FIG. 21C and FIG. 21D, the recessed region d and the support roller 30A are in contact with each other as in FIG. 21B. .

  Here, as described above, since it is assumed that the cutting portion 25 is fixedly arranged, a broken auxiliary line is used in the case of FIG. 21A and the case of FIG. 21C. As shown, the horizontal position of the cutting part 25 is not changed. Similarly, in the case of FIG. 21B and FIG. 21D, the horizontal position of the cutting portion 25 is not changed as indicated by the broken auxiliary line.

  Here, the exact story about what to do with the cutting area of the rotary kiln 10 is omitted, but conceptually, when the rotary surface of the rotary kiln 10 is viewed in a cross section along its axis. In the case of finishing in a perfect circle, whether or not each of the areas a to c should be cut is as follows.

That is,
The long axis corresponding region a should be cut,
The short axis corresponding region b should not be cut,
Strictly speaking, the intermediate region c should be cut at a portion closer to the major axis corresponding region a, and should not be cut at a portion closer to the minor axis corresponding region b. However, here, for convenience of explanation, it is assumed that the intermediate region c is a region that should not be cut similarly to the short axis corresponding region b.

  However, as shown in the relationship between FIG. 21A and FIG. 21B, when the rotary kiln 10 has the recessed area d in the support roller 30A, the rotary kiln 10 depends on the rotational position of the recessed area d. The rotational axis of the can be eccentric. Then, when the polishing apparatus of Patent Document 1 is used, when the rotary kiln 10 is displaced to the cutting portion 25 side, all the areas a to c are thicker than necessary regardless of the major axis and minor axis. There is a problem that it is polished. This point will be described below with a specific example.

  In the example shown in FIG. 21A, the surface of the rotary kiln 10 facing the cutting part 25 is an intermediate region c. In this case, the rotary kiln 10 and the cutting part 25 are not in contact with each other. Therefore, the intermediate region c that should not be cut facing the cutting portion 25 is not cut by the cutting portion 25. Therefore, no problem occurs in this case.

  After that, when the rotary kiln 10 rotates counterclockwise to reach an intermediate state between the state shown in FIG. 21A and the state shown in FIG. The rotary kiln 10 and the cutting part 25 are in contact with each other. Therefore, the long axis corresponding region a to be cut facing the cutting portion 25 is cut by the cutting portion 25. Therefore, no problem occurs in this case.

  In the example shown in FIG. 21B as well, the surface of the rotary kiln 10 facing the cutting part 25 is an intermediate region c. In this case as well, the rotary kiln 10 and the cutting part 25 are not in contact with each other. Therefore, the intermediate region c that should not be cut facing the cutting portion 25 is not cut. Therefore, no problem occurs in this case.

  After that, when the rotary kiln 10 rotates counterclockwise to reach an intermediate state between the state shown in FIG. 21B and the state shown in FIG. Although facing each other, the rotary kiln 10 and the cutting portion 25 do not contact each other, and therefore the short axis corresponding region b is not cut by the cutting portion 25. Therefore, no problem occurs in this case.

  In the example shown in FIG. 21C, the surface of the rotary kiln 10 facing the cutting part 25 is an intermediate region c. In this case, the rotary kiln 10 and the cutting part 25 are in contact with each other. Therefore, the intermediate region c that should not be cut facing the cutting portion 25 is cut by the cutting portion 25. Therefore, a problem arises in this case.

  After that, when the rotary kiln 10 rotates counterclockwise and becomes an intermediate state between the state shown in FIG. 21C and the state shown in FIG. The rotary kiln 10 and the cutting part 25 are in contact with each other. Therefore, the long axis corresponding region a to be cut facing the cutting portion 25 is cut by the cutting portion 25. Therefore, in this case, the problems that have occurred so far are solved.

  In the example shown in FIG. 21D, the surface of the rotary kiln 10 facing the cutting part 25 is also the intermediate region c. As shown in FIG. 21 (d), in this case, the rotary kiln 10 and the cutting portion 25 are not in contact with each other. Therefore, the intermediate region c that should not be cut facing the cutting portion 25 is not cut. Therefore, no problem occurs in this case.

  However, after that, when the rotary kiln 10 rotates counterclockwise and becomes an intermediate state between the state shown in FIG. 21D and the state shown in FIG. Since b faces the cutting part 25 and these are in contact with each other, the short axis corresponding region b is cut by the cutting part 25. Therefore, a problem arises in this case.

  To summarize the above, when the support roller 30A has the recessed area d, the rotary shaft of the rotary kiln 10 is eccentric depending on the rotational position of the recessed area d, so that the cutting section 25 is fixedly arranged. Therefore, it is difficult to finish the rotary kiln 10 into a perfect circle when viewed in a cross section along its axis.

  However, although an extreme example is shown in FIG. 21, even if the support roller 30 </ b> A does not have the recessed region d, any one of the surfaces of the rotary kiln 10, the support roller 30 </ b> A, and the support roller 30 </ b> B has an axial center. When the orthogonal cross section is elliptical, the rotary kiln 10 can be eccentric. If the surfaces of the support roller 30A and the support roller 30B are smoothed and then the surface of the rotary kiln 10 is smoothed, the inconveniences described with reference to FIGS. 21C and 21D are alleviated. However, in practice, the effect is limited when processing is performed in such a procedure.

  On the other hand, the smoothing device 20 of the present embodiment has been sufficiently considered on the assumption that the rotary shaft of the rotary kiln 10 can be eccentric, and avoids the occurrence of the above problems. .

  FIG. 22 is a model diagram showing an example of the structure of the smoothing device shown in FIG. 22 (a) to 22 (b) show the rotary kiln 10 and the smoothing device 20 described above, respectively. The smoothing device 20 includes a cutting portion 25 described above, a support portion (also referred to as a “bed”) 26 to which the cutting portion 25 is attached to an end portion, and a contact on the upstream side in the rotational direction in contact with the rotary kiln 10. The contact roller 21, the support portion 22 to which the contact roller 21 is attached at the end, the contact roller 23 on the downstream side in the rotational direction that contacts the rotary kiln 10, and the contact roller 23 are attached to the end. The support part 24 is provided. The support portions 22, 24, and 26 may be integrated with each other.

  In the present embodiment, at the time of cutting the surface of the rotary kiln 10, three points of the contact roller 21, the contact roller 23, and the cutting portion 25 come into contact with the surface of the rotary kiln 10. Since the center of the arc passing through the three fixed points is constant, the smoothing device 20 performs the smoothing process using this principle.

  In the present embodiment, even if the smoothing device 20 is pushed by the rotary kiln 10 due to the fact that the surface of the rotary kiln 10 has an irregular shape such that the orthogonal cross section of the axis of the rotary kiln 10 is elliptical, The positional relationship between the three points is prevented from being lost, and cutting can be performed well.

  Specifically, the support portions 22, 24, and 26 are fixed to each other. However, the support portions 22, 24, and 26 rotate around the base end vicinity of the bed 26 between the connection portions 28 (FIG. 23) as attachment targets. This is possible and can be displaced in the horizontal direction, thereby realizing a desired cutting. This will be described later with reference to FIG.

  FIG. 22A shows an example in which the facing position between the surface of the rotary kiln 10 and the cutting portion 25 is separated. On the other hand, FIG. 22B shows an example in which the surface of the rotary kiln 10 and the opposed position of the cutting portion 25 are in contact with each other. 22A and 22B, both of the contact rollers 21 and 23 are in contact with the surface of the rotary kiln 10.

  The state of FIG. 22A is typically the case where the short axis corresponding region b described with reference to FIG. 21 is opposed to the surface of the rotary kiln 10, that is, in the vicinity of the cutting portion 25. This occurs when the surface of the rotary kiln 10 is a relatively loose arc. In this case, the region is not cut because it does not contact the cutting portion 25.

  The state of FIG. 22B is typically the case where the long axis corresponding region a described with reference to FIG. 21 is opposed to the surface of the rotary kiln 10, that is, in the vicinity of the cutting portion 25. This occurs when the surface of the rotary kiln 10 is a relatively tight arc. In this case, the region is cut because it is in contact with the cutting portion 25.

  FIG. 23 is a perspective view illustrating a specific configuration example of the smoothing device 20 illustrated in FIG. 22. FIG. 23 shows a state in which the smoothing device 20 is installed at a substantially horizontal position from the rotation axis of the rotary kiln 10.

  The rotary kiln 10 has various sizes, but generally has a total length of about 40 m to 120 m and a diameter of about 3 m to 6 m. On the outer periphery of the rotary kiln 10, metal tires 11 such as iron are attached every several tens of meters. The tire 11 has a diameter corresponding to the diameter of the rotary kiln 10, and generally has a width of about 0.5 m to 1.5 m and a thickness of about 20 cm to 50 cm.

  Further, FIG. 23 shows shaft center portions 31A and 31B of the support rollers 30A and 30B, respectively. The shaft center portions 31 </ b> A and 31 </ b> B are parallel to the shaft center portion of the rotary kiln 10. As is well known, the support rollers 30A and 30B are arranged on the upper side of the mounting table 40 made of concrete or the like, and are rotated in the same direction by a motor (not shown).

  The smoothing device 20 includes the cutting unit 25 described above. The cutting unit 25 has a blade that cuts the surface of the tire 11. The type of the blade is not limited, and for example, a blade having a plurality of blades attached to the tip thereof and a motor for rotating the blade may be incorporated. Alternatively, it may be a cutting tool for outer diameter cutting. In addition, when the rotational speed of the rotary kiln 10 is relatively slow, the former blade may be used, and when the rotational speed of the rotary kiln 10 is relatively fast, the latter blade may be used.

  The cutting part 25 is fixed to a saddle connected to a rail part 27 arranged along the long side on the bed 26. Between the rail parts 27, the feed screw for implement | achieving the horizontal movement of the cutting part 25 is provided. For this reason, the cutting unit 25 can move on the bed 26 in the direction of the rotation axis of the rotary kiln 10 through the rail unit 27.

  In the smoothing device 20 having the configuration shown in FIG. 23, the bed 26 can be attached to and detached from the integrated support portions 22 and 24. The length of the bed 26 in the longitudinal direction exceeds the radiation of the tire 11. By appropriately changing the position of the cutting portion 25 by the rail portion 27 and the feed screw, the full width of the evening ear 11 can be smoothed.

  The integrated support portions 22 and 24 are substantially U-shaped plates as a whole. The smoothing device 20 of the present embodiment is configured such that the bed 26 is detachable across the central portion between the pair of support portions 22 and 24. Therefore, the bed 26 can be appropriately replaced with a size according to the entire width of the tire 11, thereby realizing the smoothing of the entire width of the tire 11.

  Each of the contact roller 21 and the contact roller 23 is attached to a roller shaft that extends over the ends of the integrated support portions 22 and 24, and is positioned approximately at the center of the roller shaft. In FIG. 23, it is drawn that each roller shaft is longer than the entire width of the tire 11, but it should be noted that this is not always necessary. Moreover, although the contact roller 21 and the contact roller 23 each show a single opening roller, instead of this, for example, each may be a pair of rollers.

  In addition, the integrated support portions 22 and 24 are connected to the connection portion 28 via a roller shaft, for example, at a position that is substantially horizontal to the mounting region of the bed 26. In addition, the connecting portion 28 is connected to the connecting portions 43 and 44 below the connecting portion 28 via a roller shaft. That is, the connecting portion 28 is connected in a rotatable state between the integrated support portions 22 and 24 and between the pair of connecting portions 43 and 44. On the other hand, the connecting portions 43 and 44 are fixed to the stationary portions 41 and 42. The stationary parts 41 and 42 are stationary on the mounting table 40 and the like.

  Further, the cutting portion 25 is pressed against the tire 11 with a required pressure against the connecting portion 28, and when the rotary kiln 10 is eccentric, the position of the cutting portion 25 can be displaced following the eccentricity. The air cylinder 29 is attached.

  That is, when there is no eccentricity in the rotary kiln 10, air is sent to the air cylinder 29 to push up the connecting portion 28 and press the integrated support portions 22 and 24 against the rotary kiln 10. At this time, the air cylinder 29 is in the extended state.

  On the other hand, when the rotary kiln 10 has an eccentricity toward the smoothing device 20 side, the integrated support portions 22 and 24 are pushed following this, or are rotated around the roller shaft with the connection portion. However, even if the connecting portion 28 is pushed down by this, the air cylinder 29 is in a contracted state, so that the surface of the tire 11 is not excessively cut.

  That is, according to the smoothing device 20 of this embodiment, even when the tire 11 is rotationally asymmetric, even if the integrated support portions 22 and 24 are rotated or displaced with respect to the connection portion 28, the so-called smoothing device 20 is so-called. It can play the role of escape and can prevent excessive cutting of the surface of the tire 11.

  It takes about 1 to 3 days to perform the smoothing process on the rotary kiln 10 that is in operation using such a smoothing device 20, rather than stopping the rotary kiln 10 and restarting it. It is preferable to use the smoothing device 20 in consideration of energy efficiency and work efficiency.

  When the smoothing device 20 performs the smoothing process on the rotary kiln 10 in operation, the portion to be cut is cut while the portion that should not be cut is not cut. When viewed in a cross section along the axis, it can be finished in a perfect circle.

<Appendix>
Further, the present invention may be expressed as follows.
(Appendix 1)
Smoothing that smoothes the contact surface between the first rotating body and the second rotating body while rotating the first rotating body whose rotating shaft can be eccentric on a plurality of second rotating bodies whose rotating shaft is not eccentric. A device,
A cutting part for cutting the contact surface;
A regulating part that presses the cutting part against the contact surface and displaces the position of the cutting part following the eccentricity when the first rotating body is eccentric;
A smoothing device comprising:
(Appendix 2)
The defining portion presses the contact surface against a pair of contact rollers rotating in contact with the upstream and downstream in the rotation direction of the first rotating body, and the contact rollers and the cutting portion. And an air cylinder that allows displacement of the position of the cutting part,
The smoothing apparatus according to appendix 1.
(Appendix 3)
The cutting part is located between the pair of contact rollers,
The smoothing apparatus according to appendix 2.
(Appendix 4)
The pair of contact rollers and the cutting part are located on an arc.
The smoothing apparatus according to appendix 2 or 3.
(Appendix 5)
The width of each contact roller is shorter than the width of the tire provided on the outer periphery of the first rotating body,
The smoothing device according to any one of appendices 2 to 4.
(Appendix 6)
A support unit that supports the pair of abutment rollers and the cutting unit and is swingable so that the center axis of the swing is in the rotation axis direction of the first rotating body;
The smoothing device according to any one of appendices 2 to 5.
(Appendix 7)
The cutting portion is movable in the direction of the rotation axis of the first rotating body.
The smoothing device according to any one of appendices 1 to 6.
(Appendix 8)
The first rotating body is a rotary kiln;
The second rotating body is a support roller for supporting the rotary kiln;
The smoothing device according to any one of appendices 1 to 7.
(Appendix 9)
Smoothing that smoothes the contact surface between the first rotating body and the second rotating body while rotating the first rotating body whose rotating shaft can be eccentric on a plurality of second rotating bodies whose rotating shaft is not eccentric. A method,
A smoothing method in which when a cutting portion is pressed against the contact surface and the first rotating body is eccentric, cutting is performed while the position of the cutting portion is displaced following the eccentricity.

  In addition, this invention is not limited to embodiment mentioned above. For example, various modifications that can be understood by those skilled in the art may be added to the above-described embodiments without departing from the spirit of the present invention.

  The present invention enjoys the benefit of the priority claim based on the patent application of Japanese Patent Application No. 2017-046024 filed on March 10, 2017 in Japan, and has the contents disclosed in the patent application. All are intended to be included herein.

1000 Supported rotating body 1001 Convex part 1002 Part 1003 Concave part 1004 Part 1100 Supporting rotary body 1200 Removal processing part 1, 1A, 1B Processing apparatus 100 Removal processing part 110 Drive part 120 Tool part 200 Displacement mechanism part 210 Housing part structure 220 Support Body 230 1st rolling part 231 1st shaft body 232 1st rolling body 233 1st rolling body part 2331 support part constituting body 2332 3rd shaft body 2333 1st rolling body 240 2nd rolling part 241 2nd shaft body 242 Second rolling element 243 Second rolling element part 2431 Supporting part structure 2432 Fourth shaft body 2433 Second rolling element 250, 250B Connection part 251 End part structure 252 Linking object 253 Connection object 260 First seat part 261 Main body 262 Extension Protruding body 270 Base part 271 Main body 272 First extending body 2721 Locking part 273 Second extending body 300, 300B Energizing part 10 urging force generating unit 320 second pedestal 501 supporting rotator 6 the supporting rotator 601 fuselage 602 tire CA, CA0, CA1, CA2 central axis RA1, RA2 central axis RP reference surface 10 rotary kiln (first rotating member)
20 Smoothing device 21 Contact roller 22 Supporting part 23 Contacting roller 24 Supporting part 24 Supporting part 25 Cutting part 26 Bed 27 Rail part 28 Connection part 29 Air cylinder 30A, 30B Support roller (second rotating body)
a Long axis corresponding area b Short axis corresponding area c Intermediate area d Recessed area

Claims (9)

A processing device that performs removal processing to remove at least a part of the outer peripheral surface of the supported rotating body that is supported by the plurality of supporting rotating bodies and rotates with the rotation of the plurality of supporting rotating bodies,
A removal processing portion for performing the removal processing by contacting the outer peripheral surface;
A displacement mechanism unit that supports the removal processing unit and can change the position of the removal processing unit in the direction along with the movement of the outer peripheral surface in a direction orthogonal to the central axis of the supported rotating body,
A biasing portion that biases the removal processing portion toward the outer peripheral surface;
A processing apparatus comprising: The processing apparatus according to claim 1,
The said displacement mechanism part is a processing apparatus provided with the at least 1 rolling element which rolls with the rotation of the said supported rotating body by contacting the said outer peripheral surface. The processing apparatus according to claim 2,
In the case where each of the at least one rolling element is in contact with the outer peripheral surface, the removal processing portion passes through a position where each of the at least one rolling element is in contact with the outer peripheral surface and has a predetermined radius. A processing apparatus having a position of The processing apparatus according to claim 2 or 3, wherein
The at least one rolling element includes two rolling elements sandwiching the removal processing portion in a circumferential direction of the supported rotating body,
The processing device, wherein the displacement mechanism unit is swingably supported so that a swing center axis extends along a center axis of the supported rotating body. A processing apparatus according to any one of claims 2 to 4,
The processing apparatus, wherein the at least one rolling element includes a roller that is rotatably supported so that a central axis of rotation extends along a central axis of the supported rotating body. The processing apparatus according to claim 5,
Comprising a support part supported so that the center part of the supported rotating body can swing along the center axis of the supported rotating body so that the center part can swing;
The at least one rolling element includes a pair of rolling elements that are rotatably supported at both ends of the support portion so that a central axis of rotation extends along a central axis of the supported rotating body. apparatus. A processing apparatus according to any one of claims 1 to 6,
The said displacement mechanism part is a processing apparatus which can change the position of the said removal process part in the direction along the center axis | shaft of the said supported rotating body. A processing apparatus according to any one of claims 1 to 7,
The displacement mechanism is
Of the displacement mechanism portion, constituting both end portions in the direction along the central axis of the supported rotating body, and a pair of end portion structures facing each other in the direction,
A connecting body that extends between the pair of end structure members and whose both ends are fixed to the pair of end structure members;
A processing apparatus comprising: Rotating a supported rotating body supported by a plurality of supporting rotating bodies together with the rotation of the plurality of supporting rotating bodies;
The position of the removal processing portion that performs the removal process for removing at least a part of the outer peripheral surface of the supported rotating body is set in the direction along with the movement of the outer peripheral surface in the direction orthogonal to the central axis of the supported rotating body. Support the removal processing part so that it can be changed,
Energizing the removal processing portion toward the outer peripheral surface,
The removal processing portion performs the removal processing by contacting the outer peripheral surface,
A processing method.

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