WO2011118593A1 - ワーク搬送装置およびこれを備えたバルブ研削盤ならびにワーク搬送方法およびバルブ研削方法 - Google Patents
ワーク搬送装置およびこれを備えたバルブ研削盤ならびにワーク搬送方法およびバルブ研削方法 Download PDFInfo
- Publication number
- WO2011118593A1 WO2011118593A1 PCT/JP2011/056862 JP2011056862W WO2011118593A1 WO 2011118593 A1 WO2011118593 A1 WO 2011118593A1 JP 2011056862 W JP2011056862 W JP 2011056862W WO 2011118593 A1 WO2011118593 A1 WO 2011118593A1
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- WIPO (PCT)
- Prior art keywords
- workpiece
- hollow chuck
- posture
- chuck
- engine valve
- Prior art date
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Classifications
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B24—GRINDING; POLISHING
- B24B—MACHINES, DEVICES, OR PROCESSES FOR GRINDING OR POLISHING; DRESSING OR CONDITIONING OF ABRADING SURFACES; FEEDING OF GRINDING, POLISHING, OR LAPPING AGENTS
- B24B41/00—Component parts such as frames, beds, carriages, headstocks
- B24B41/06—Work supports, e.g. adjustable steadies
- B24B41/067—Work supports, e.g. adjustable steadies radially supporting workpieces
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B24—GRINDING; POLISHING
- B24B—MACHINES, DEVICES, OR PROCESSES FOR GRINDING OR POLISHING; DRESSING OR CONDITIONING OF ABRADING SURFACES; FEEDING OF GRINDING, POLISHING, OR LAPPING AGENTS
- B24B15/00—Machines or devices designed for grinding seat surfaces; Accessories therefor
- B24B15/04—Machines or devices designed for grinding seat surfaces; Accessories therefor on valve members
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B24—GRINDING; POLISHING
- B24B—MACHINES, DEVICES, OR PROCESSES FOR GRINDING OR POLISHING; DRESSING OR CONDITIONING OF ABRADING SURFACES; FEEDING OF GRINDING, POLISHING, OR LAPPING AGENTS
- B24B41/00—Component parts such as frames, beds, carriages, headstocks
- B24B41/005—Feeding or manipulating devices specially adapted to grinding machines
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B24—GRINDING; POLISHING
- B24B—MACHINES, DEVICES, OR PROCESSES FOR GRINDING OR POLISHING; DRESSING OR CONDITIONING OF ABRADING SURFACES; FEEDING OF GRINDING, POLISHING, OR LAPPING AGENTS
- B24B5/00—Machines or devices designed for grinding surfaces of revolution on work, including those which also grind adjacent plane surfaces; Accessories therefor
- B24B5/35—Accessories
- B24B5/355—Feeding means
Definitions
- the present invention relates to a work transfer device, a valve grinding machine equipped with the work transfer device, a work transfer method, and a valve grinding method. Specifically, the present invention relates to a workpiece transfer device, a valve grinding machine, a workpiece transfer method, and a valve grinding method for handling a workpiece having an umbrella portion on one end side, such as an engine valve.
- a collet chuck is generally used as a chuck for fixing the workpiece. Since the collet chuck is not shaped to cover the protruding portion of the workpiece protruding outward from the end portion thereof, it is suitable for a workpiece that projects and fixes an umbrella portion such as an engine valve. However, the collet chuck has slightly lower centering accuracy for the fixed workpiece.
- a chuck capable of higher centering accuracy than the collet chuck.
- this type of chuck include a chuck called a hollow chuck and an air chuck (hereinafter referred to as a hollow chuck). Since the hollow chuck has a hollow portion inside, for example, an umbrella portion of an engine valve can be accommodated in the hollow portion.
- the diameter (opening diameter) of a virtual circle passing through the tip of the claw does not expand to the diameter of the hollow portion.
- the diameter of a virtual circle passing through the tips of the three claws when the chuck is opened is smaller than the diameter of the hollow part.
- the hollow chuck having a configuration in which the claws are expanded to the same extent as the diameter of the hollow portion is a custom-made product, and there is a problem that costs increase.
- the large-diameter portion of the workpiece having a large-diameter portion on one end side larger than the diameter of the virtual circle passing through the tips of the plurality of claws of the hollow chuck is placed in the hollow portion of the hollow chuck.
- a workpiece transfer device that can be inserted, a valve grinding machine equipped with the workpiece transfer method, a workpiece transfer method, and a valve grinding method.
- the workpiece transfer device (for example, a workpiece transfer device 5 described later) has a hollow portion (for example, a later-described hollow portion 72) and at least three claws (for example, a later-described nail 71).
- a multi-claw hollow chuck for example, a 3-way claw hollow chuck 70 to be described later
- a large-diameter portion for example, an umbrella portion Vb to be described later having a diameter larger than the diameter that can be inserted in the axial direction of the multi-claw hollow chuck.
- Is a workpiece transfer device for loading and unloading a workpiece for example, an engine valve V to be described later having at least one end portion side, and a first advance / retreat device (for example, provided so as to be able to advance and retract toward the multi-jaw hollow chuck) , A slider 41, which will be described later, and a gripping device (for example, which will be described later) that is swingably provided on the first advancing / retracting device and grips the other end side (for example, a handle side end Vc to be described later) of the workpiece.
- a workpiece transfer device for loading and unloading a workpiece for example, an engine valve V to be described later
- a first advance / retreat device for example, provided so as to be able to advance and retract toward the multi-jaw hollow chuck
- a slider 41 which will be described later
- a gripping device for example, which will be described later
- the posture of the work gripped by the gripping device is changed to the axial orientation by swinging the gripping device 421) and the posture of the gripping device in accordance with the advance / retreat of the first advance / retreat device.
- a first cam mechanism for example, a plate cam 16, a cam groove 161, and a cam roller 46, which will be described later
- the gripping device swings the workpiece from the inclined posture toward the facing posture according to the first cam mechanism.
- the workpiece transfer device may be configured so that the one end side is put into the multi-claw hollow chuck.
- FIG. 3 is a schematic front view of the workpiece transfer device in a state in which the workpiece input device is advanced from the position shown in FIG. 2 and the workpiece discharge device is retracted.
- FIG. 4 is a schematic front view of the workpiece transfer device in a state in which the workpiece loading device has moved forward from the position shown in FIG.
- FIG. 5 is a schematic front view of the workpiece transfer device in a state in which the workpiece input device is advanced from the position shown in FIG. 4 and the workpiece dispensing device is retracted.
- FIG. 6 is a schematic front view of the workpiece transfer device in a state in which the workpiece input device is advanced from the position shown in FIG. 5 and the workpiece discharge device is retracted.
- FIG. 7 is a schematic front view of the workpiece transfer device in a state in which the workpiece loading device is advanced from the position shown in FIG. 6 and the workpiece dispensing device is retracted.
- FIG. 5 is a schematic front view of the workpiece transfer device in a state in which the workpiece input device is advanced from the position shown in FIG. 4 and the workpiece dispensing device is retracted.
- FIG. 6 is a schematic front view of the workpiece transfer device in a state in which the workpiece input device is advanced from the position shown in FIG. 5 and the workpiece discharge device is retracted.
- FIG. 7
- FIG. 8 is a schematic front view of the workpiece transfer device in a state in which the workpiece input device is advanced from the position shown in FIG. 7 and the workpiece discharge device is retracted.
- FIG. 9 is a schematic front view of the workpiece transfer device in a state in which the workpiece loading device is advanced from the position shown in FIG. 8 and the workpiece dispensing device is retracted.
- FIG. 10 is a schematic front view of the workpiece transfer device in a state in which the workpiece loading device moves forward from the position shown in FIG. 9 to the forward limit position and the workpiece discharge device moves backward to the backward limit position.
- It is a schematic side view of the workpiece conveyance apparatus of an exemplary embodiment. It is a schematic plan view of the workpiece conveyance apparatus of an exemplary embodiment.
- FIG. 1 is a schematic perspective view of a valve grinder of an exemplary embodiment. It is explanatory drawing which shows the relationship between the diameter of the hollow part of a three-way nail
- FIG. 1 is a schematic front view showing a workpiece transfer apparatus according to an exemplary embodiment.
- FIG. 11 is a schematic side view of the workpiece transfer apparatus.
- FIG. 12 is a schematic plan view of the workpiece transfer device.
- the workpiece transfer device 5 includes a support frame 10, a workpiece receiving device 20, a workpiece reversing / lowering device 30, a workpiece loading device 40, and a workpiece dispensing device 50.
- the support frame 10 is a wall-shaped frame installed substantially perpendicular to the floor surface.
- the workpiece transfer device 5 inputs the engine valve V as a workpiece into the three-way claw hollow chuck 70 and pays it out from the three-way claw hollow chuck 70.
- the support frame 10 includes a support rail 11 and an actuator 12 for the workpiece receiving device 20, an actuator 13 and a support beam 14 for the workpiece reversing / lowering device 30, a support rail 15 and a plate cam 16 for the workpiece loading device 40, and a workpiece.
- a support rail 17 and a plate cam 18 for the dispensing device 50 and a motor 19 shared by the workpiece loading device 40 and the workpiece dispensing device 50 are provided.
- the motor 19 has a pinion 191 on the output shaft.
- the support rail 11 is attached to the upper part on the front surface (right side surface in FIG. 11) side of the support frame 10 and supports the workpiece receiving device 20 so as to be horizontally movable in parallel with the support frame 10.
- the actuator 12 is attached to the front side of the support frame 10 above the support rail 11 and reciprocates the workpiece receiving device 20 along the support rail 11.
- the actuator 13 is attached to the back surface (left side surface in FIG. 11) of the support frame 10 and moves up and down substantially vertically.
- the support beam 14 is attached to the upper end of the actuator 13 and supports the workpiece reversing / lowering device 30 on the front side in a cantilever manner across the upper side of the support frame 10 (the right side in FIG. 1).
- the support rail 15 is attached to the front side of the support frame 10 below the support rail 11 and supports the workpiece loading device 40 so as to be horizontally movable in parallel with the support frame 10.
- the plate cam 16 is attached to the front side of the support frame 10 below the support rail 15 and extends parallel to the support frame 10.
- the plate cam 16 has a cam groove 161 that constitutes a cam mechanism together with a cam roller 46 described later. The shape of the cam groove 161 of the plate cam 16 will be described later.
- the support rail 17 is attached to the front side of the support frame 10 below the plate cam 16 and supports the workpiece dispensing apparatus 50 so as to be horizontally movable in parallel with the support frame 10.
- the plate cam 18 is attached to the front side of the support frame 10 below the support rail 17 and extends parallel to the support frame 10.
- the plate cam 18 has a cam groove 181. The shape of the cam groove 181 of the plate cam 18 will be described later.
- the motor 19 reciprocates the workpiece input device 40 along the support rail 15 and reciprocates the workpiece dispensing device 50 along the support rail 17.
- the workpiece receiving device 20 includes a slider 21, a rotating arm 22, and an actuator A (not shown).
- the slider 21 is supported by the support rail 11 and reciprocates along the support rail 11 by the operation of the actuator 12. That is, the slider 21 reciprocates between the receiving position of the engine valve V shown in FIG. 1 and the delivery position of the engine valve V shown in FIG.
- Rotating arm 22 is attached to slider 21 via pivot shaft 23 so as to be rotatable.
- the rotating arm 22 has a notch portion 223 that is notched so as not to interfere with the support portions 221 and 222 at two front and rear portions that support the shaft portion Va of the engine valve V and the umbrella portion Vb as one end portion side of the engine valve V. And having.
- the rotating arm 22 has an umbrella portion Vb of the engine valve V as a rear end portion and an end portion as the other end portion side of the engine valve V (with respect to the forward movement (rightward movement in FIG. 1) direction of the slider 21.
- the engine valve V is supported with the handle end Vc) as a front end.
- the support portion 221 on the front side of the rotating arm 22 includes a support surface 221a that supports the shaft portion Va of the engine valve V, and support claws 221b and 221c that extend upward from the support surface 221a on both the left and right sides of the support surface 221a. .
- the distance between the left and right support claws 221b and 221c is slightly larger than the diameter of the shaft portion Va of the engine valve V.
- the support portion 222 on the rear side of the rotation arm 22 is configured in the same manner as the support portion 221 on the front side except that the length of the support claw is short.
- Actuator A rotates the rotating arm 22. That is, the rotating arm 22 rotates between the operating posture shown in FIG. 1 and the retracted posture shown in FIG.
- the support portions 221 and 222 of the rotating arm 22 support the shaft portion Va of the engine valve V substantially horizontally.
- the support portions 221 and 222 of the rotating arm 22 are retracted downward.
- the work reversing / lowering device 30 includes an elevating body 31, a rotating body 32, an actuator B (not shown), and a support arm 34.
- the elevating body 31 is supported by the support beam 14 and moves up and down integrally with the support beam 14 by the operation of the actuator 13. That is, the elevating body 31 moves up and down between the raised position shown in FIG. 1 and the lowered position shown in FIG.
- the rotating body 32 is attached to the lower side of the elevating body 31 so as to be rotatable via a vertical pivot shaft (not shown).
- the actuator B rotates the rotating body 32 by 180 ° with respect to the elevating body 31. That is, the rotating body 32 rotates between a forward position shown in FIG. 3 and a rearward position shown in FIG.
- the upper end portion of the support arm 34 is attached to the rotating body 32.
- the lower end portion of the support arm 34 removably supports the shaft portion Va of the engine valve V.
- the workpiece input device 40 includes a slider 41 as an advance / retreat device, a support 42, and a cam roller 46 as a cam mechanism.
- the slider 41 has a rack 411 that meshes with the pinion 191 of the motor 19.
- the slider 41 is supported by the support rail 15 and reciprocates along the support rail 15 by the operation of the motor 19.
- the support 42 is attached to the slider 41 via a pivot shaft 43 so as to be rotatable.
- the support body 42 has a gripping portion 421 as a gripping device that detachably grips the handle side end portion Vc of the engine valve V.
- the cam roller 46 is attached to the slider 41 integrally with the support 42. The cam roller 46 engages with the cam groove 161 of the plate cam 16.
- the workpiece dispensing apparatus 50 includes a slider 51, a dispensing arm 52, a rotating arm 54, and a cam roller 56.
- the slider 51 has a rack 511 that meshes with the pinion 191 of the motor 19.
- the slider 51 is supported by the support rail 17 and reciprocates along the support rail 17 by the operation of the motor 19.
- the payout arm 52 is attached to the slider 51 via a pivot shaft 53 so as to be rotatable.
- One end portion (tip portion) of the payout arm 52 has a contact portion 521 with which the handle side end portion Vc of the engine valve V can contact.
- a pin 522 is provided on the other end side of the payout arm 52.
- the rotating arm 54 is attached to the slider 51 via a pivot shaft 55 so as to be rotatable.
- the long hole 541 engages with the pin 522 of the payout arm 52.
- the cam roller 56 is attached to the slider 51 integrally with the rotating arm 54. Specifically, the cam roller 56 is attached to the other end of the rotating arm 54. The cam roller 56 engages with the cam groove 181 of the plate cam 18.
- the rotating arm 22 In the workpiece receiving device 20, when the slider 21 is in the receiving position of the engine valve V shown in FIG. 1, the rotating arm 22 is in the operating posture. In this state, the engine valve V supplied from above is received and supported by the support portions 221 and 222 of the rotating arm 22. At this time, the umbrella part Vb of the engine valve V is located in the notch part 223 of the rotating arm 22.
- the slider 21 After receiving the engine valve V in the state shown in FIG. 1, the slider 21 moves forward along the support rail 11 to the delivery position of the engine valve V shown in FIG. .
- the rotating arm 22 When the slider 21 stops at the delivery position, the rotating arm 22 is maintained in the operating posture and supports the shaft portion Va of the engine valve V substantially horizontally.
- This delivery position corresponds to the reception position of the engine valve V by the work reversing / lowering device 30.
- the engine valve V that is horizontally supported by the rotating arm 22 is supported from the rotating arm 22 to the supporting arm 34 by supporting the handle end Vc by the supporting arm 34 of the work reversing and lowering device 30 at its lower end. It is transferred. Thereby, the rotating arm 22 is released from the support of the engine valve V.
- Actuator A rotates the rotating arm 22 released from the support of the engine valve V to the retracted position as shown in FIG. Next, by the operation of the actuator 12, the slider 21 moves back along the support rail 11 to the position where the engine valve V shown in FIG. 4 is received and stops at that position. Thereafter, the actuator A rotates the rotating arm 22 to the operating posture as shown in FIG. Then, the workpiece receiving device 20 waits for reception of the next engine valve V.
- the work reversing / lowering device 30 waits for delivery of the engine valve V from the work receiving device 20 in a state where the elevating body 31 is in the raised position and the rotating body 32 is in the forward position. . That is, the position shown in FIG. 1 is the standby position of the workpiece reversing / lowering device 30 and the receiving position of the engine valve V.
- the elevating body 31 is lowered from the receiving position of the engine valve V to the delivery position of the engine valve V.
- This delivery position corresponds to the reception position of the engine valve V by the workpiece input device 40.
- the engine valve V supported by the support arm 34 is transferred from the support arm 34 to the grip portion 421 when the handle side end portion Vc is supported by the grip portion 421 of the support body 42 of the workpiece loading device 40. Thereby, the support arm 34 is released from the support of the engine valve V.
- Actuator 13 raises lifting body 31 including support arm 34 released from the support of engine valve V to the raised position as shown in FIG.
- the rotating body 32 is rotated 180 ° with respect to the lifting body 31 to the forward position shown in FIG.
- the support arm 34 is on the right end side in FIG.
- the workpiece reversing / lowering device 30 waits for reception of the next engine valve V.
- the state of the workpiece receiving device 20 shown in each drawing of FIGS. 1 to 10 does not accurately correspond to the state of the workpiece loading device 40 and the workpiece dispensing device 50 shown in each drawing of FIGS. .
- the state of the workpiece reversing / lowering device 30 shown in each of FIGS. 1 to 10 corresponds exactly to the state of the workpiece loading device 40 and the workpiece dispensing device 50 shown in each of FIGS. Not.
- the work loading device 40 is operated by the operation of the motor 19 so that the slider 41 moves between the most retracted backward limit position shown in FIG. 2 and the most advanced forward limit position shown in FIG. 10 via the pinion 191 and the rack 411. Reciprocate.
- the engine valve V receiving position shown in FIG. 5 is included in the reciprocating path. This receiving position corresponds to the delivery position of the engine valve V by the support arm 34 of the work reversing / lowering device 30.
- the workpiece dispensing apparatus 50 is operated by the motor 19 between the most advanced forward limit position shown in FIG. 2 and the most backward retracted limit position shown in FIG. 10 via the pinion 191 and the rack 511. Reciprocate.
- the workpiece input device 40 and the workpiece dispensing device 50 are moved forward and backward by one rotation of the motor 19, and the other moves backward when one moves forward, and the other moves forward when one moves backward.
- one forward or reverse speed and the other reverse or forward speed are the same speed.
- the cam groove 161 of the plate cam 16 is partly from the position of the cam roller 46 when the support body 42 of the workpiece loading device 40 is in the backward limit position to the position of the cam roller 46 when the support body 42 is in the forward limit position. Except for, it extends substantially horizontally. This height is taken as the reference height of the cam groove 161.
- the cam groove 161 of the plate cam 16 has a portion having a height higher than the reference height in the middle between both ends. This height is defined as the height above the cam groove 161.
- the upper height of the cam groove 161 has a predetermined length in the middle between both ends of the cam groove 161.
- This portion is an upper height portion 161c of the cam groove 161. That is, the reference height portion of the cam groove 161 is divided into right and left in FIG. 2 by the upper height portion 161c of the cam groove 161.
- a reference height portion located on the left side in FIG. 2 is a rear reference height portion 161 a of the cam groove 161.
- a reference height portion located on the right side in FIG. 2 is a front reference height portion 161e of the cam groove 161.
- the rear reference height portion 161a and the upper height portion 161c of the cam groove 161 are connected by an inclined portion that gradually rises from the rear reference height portion 161a toward the upper height portion 161c.
- This inclined portion is referred to as a rear inclined portion 161b.
- the front reference height portion 161e and the upper height portion 161c of the cam groove 161 are connected by an inclined portion that gradually rises from the front reference height portion 161e toward the upper height portion 161c. This inclined portion is referred to as a front inclined portion 161d.
- the support body 42 of the workpiece input device 40 When the cam roller 46 is engaged with the reference height of the cam groove 161, the support body 42 of the workpiece input device 40 maintains a horizontal posture. When the support body 42 is in a horizontal posture, the engine valve V in which the grip portion 421 of the support body 42 grips the handle end Vc maintains the horizontal posture. At the receiving position of the engine valve V by the support 42, the cam roller 46 is engaged with the rear reference height portion 161a of the cam groove 161 (see FIG. 5).
- the cam roller 46 gradually rises along the rear inclined portion 161b from the joint between the rear reference height portion 161a and the rear inclined portion 161b of the cam groove 161, and the rear inclined portion 161b and the upper height portion 161c. While the slider 41 moves forward until reaching the joint, the support 42 gradually tilts forward from the horizontal posture and assumes a forward tilt posture of a predetermined angle.
- the engine valve V gripped by the gripping portion 421 of the support 42 also gradually tilts forward from the horizontal posture, and assumes a forward tilt posture of a predetermined angle. That is, the umbrella portion Vb of the engine valve V gripped by the grip portion 421 is displaced downward to a predetermined height (see FIG. 6).
- the support 42 keeps the forward inclined posture at a predetermined angle while the slider 41 moves forward until the cam roller 46 reaches the joint between the upper height portion 161c of the cam groove 161 and the front inclined portion 161d.
- the umbrella part Vb of the engine valve V gripped by the gripping part 421 of the support 42 also maintains the posture of being displaced downward to a predetermined height (see FIG. 7).
- the support 42 Is gradually inclined backward from the forward tilting posture of a predetermined angle to become a horizontal posture.
- the engine valve V gripped by the gripping portion 421 of the support 42 is also gradually tilted from the forward tilt posture of a predetermined angle toward the rear tilt direction, and becomes a horizontal posture. That is, the umbrella part Vb of the engine valve V gripped by the gripping part 421 gradually rises from a position displaced downward to a predetermined height, and finally returns to the original height (see FIGS. 8 and 9). .
- the umbrella portion Vb of the engine valve V passes through the space between the claw 71 and the claw 71 of the three-way claw hollow chuck 70. This will be described.
- the diameter d2 of the umbrella portion Vb of the engine valve V is smaller than the diameter d3 of the hollow portion 72 of the three-way claw hollow chuck 70, and the claw 71 when the three-way claw hollow chuck 70 is opened. Is larger than the diameter (opening diameter) d1 of the virtual circle passing through the tip of (d1 ⁇ d2 ⁇ d3).
- the umbrella part Vb of the engine valve V cannot be put into the hollow part 72 of the three-way claw hollow chuck 70 in a state where the shaft part Va of the engine valve V is parallel to the axis of the three-way claw hollow chuck 70. .
- the support 42 maintains the horizontal posture while the slider 41 moves forward until the cam roller 46 engages with the front reference height portion 161e of the cam groove 161 and the support 42 reaches the forward limit position.
- the engine valve V gripped by the grip portion 421 of the support 42 also maintains a horizontal posture.
- the predetermined length including the umbrella portion Vb of the engine valve V gripped by the grip portion 421 is put into the hollow portion 72 of the three-way claw hollow chuck 70.
- the engine valve V is fixed by the three-way claw hollow chuck 70 in a state where the handle side end portion Vc protrudes outward from the three-way claw hollow chuck 70 by a predetermined length (see FIG. 10).
- the cam groove 181 of the plate cam 18 substantially extends from the position of the cam roller 56 when the discharge arm 52 of the workpiece discharge device 50 is in the forward limit position to the position of the cam roller 56 when the discharge arm 52 is in the intermediate position. It extends horizontally. This height is set as a reference height of the cam groove 181.
- the reference height of the cam groove 181 has a predetermined length from the right end of the cam groove 181 to the left in FIG. This portion is a reference height portion 181a of the cam groove 181.
- the cam groove 181 of the plate cam 18 substantially extends from the position of the cam roller 56 when the discharge arm 52 of the workpiece discharge device 50 is in the retracted limit position to the position of the cam roller 56 when the discharge arm 52 is in the intermediate position. It extends horizontally. This height is higher than the reference height of the cam groove 181. This height is defined as the height above the cam groove 181.
- the upper height of the cam groove 181 has a predetermined length from the left end of the cam groove 181 to the right in FIG. This portion is an upper height portion 181c of the cam groove 181.
- the reference height portion 181a and the upper height portion 181c of the cam groove 181 are connected by an inclined portion that gradually rises from the reference height portion 181a toward the upper height portion 181c. This portion is referred to as an inclined portion 181b.
- the payout arm 52 of the work payout device 50 faces the center position of the three-way claw hollow chuck 70 with the abutting portion 521 standing up (see FIG. Maintain a standing posture.
- the cam roller 56 is engaged with the reference height portion 181a of the cam groove 181 at the receiving position (forward limit position) of the engine valve V by the payout arm 52 (see FIG. 2).
- the payout arm 52 The abutting portion 521 gradually tilts forward from the directly-facing posture (standing posture) to become a forward leaning posture (tilting posture) of a predetermined angle.
- the umbrella portion Vb of the engine valve V in which the handle side end portion Vc abuts against the abutting portion 521 gradually increases. (See FIGS. 4 and 5).
- the umbrella portion Vb of the engine valve V passes through the space between the claw 71 and the claw 71 of the three-way claw hollow chuck 70. This will be described.
- the diameter d2 of the umbrella portion Vb of the engine valve V As described above, the diameter d3 of the hollow portion 72 of the three-way claw hollow chuck 70, and the diameter (opening diameter) d1 of an imaginary circle passing through the tip of the claw 71 when opened. And d1 ⁇ d2 ⁇ d3. Therefore, the umbrella part Vb of the engine valve V is paid out from the three-way claw hollow chuck 70 to the front side (claw side) when the shaft part Va of the engine valve V is parallel to the axis of the three-way claw hollow chuck 70. I can't.
- the umbrella portion Vb of the engine valve V is gradually positioned from the center along the radial direction of the three-way claw hollow chuck 70 while being inclined with respect to this axis from the state where the umbrella portion Vb is positioned on the axis of the three-way claw hollow chuck 70.
- the umbrella portion Vb of the engine valve V can pass through the space between the claw 71 and the claw 71 of the three-way claw hollow chuck 70.
- FIG. 5 shows the handle side end portion Vc of the engine valve V and the contact portion 521 of the payout arm 52 in contact with each other. At this time, the handle side end portion Vc and the contact portion are in contact with each other. The contact state with 521 is naturally eliminated. The engine valve V in which the handle side end portion Vc is naturally eliminated from the contact state with the contact portion 521 is separated from the contact portion 521 and naturally falls (see FIG. 6).
- the payout arm 52 is inclined forward by a predetermined angle (inclined posture) with the contact portion 521 inclined forward. Keep.
- the grip portion 421 that grips the handle side end portion Vc of the engine valve V tilts the engine valve V according to the cam groove 161 and the cam roller 46.
- the umbrella portion Vb is put into the three-way claw hollow chuck 70 while swinging from the posture toward the facing posture. Therefore, without using a custom-made product, using the commercially available three-way claw hollow chuck 70, the umbrella part Vb of the engine valve V having the umbrella part Vb having a diameter larger than the diameter that can be inserted in the axial direction thereof, It can be put into the three-way claw hollow chuck 70.
- the contact portion 521 that abuts the handle-side end portion Vc of the engine valve V pushed out from the three-way claw hollow chuck 70 includes the cam groove 181 and the cam roller.
- the umbrella portion Vb is paid out from the three-way claw hollow chuck 70 while the engine valve V is swung from the directly facing posture to the inclined posture according to 56. Therefore, without using a custom-made product, using the commercially available three-way claw hollow chuck 70, the umbrella part Vb of the engine valve V having the umbrella part Vb having a diameter larger than the diameter that can be inserted in the axial direction thereof, The three-way claw hollow chuck 70 can be paid out.
- the dispensing timing and the charging timing are coordinated so that no useless blank time is interposed between the dispensing operation and the dispensing operation. Can be set. Therefore, the cycle time can be shortened.
- FIG. 13 is a schematic perspective view showing a valve grinder according to an exemplary embodiment.
- a valve grinder 1 is a valve grinder provided with the workpiece transfer device 5 as described above, and a chuck positioning device 60 as an indexing device and a multi-jaw hollow chuck on the machine base 2.
- a chuck positioning device 60 as an indexing device and a multi-jaw hollow chuck on the machine base 2.
- a three-way claw hollow chuck 70, a grindstone device 80, and a coolant device 90 As a three-way claw hollow chuck 70, a grindstone device 80, and a coolant device 90.
- the chuck positioning device 60 includes an X-axis feed mechanism 60X fixed on the machine base 2 and a Y-axis feed mechanism 60Y supported on the X-axis feed mechanism 60X.
- the X-axis feed mechanism 60X is fixed to the machine base 2 and extends along the X-axis direction and is parallel to each other, and an X-axis table 62 supported so as to be horizontally movable along the X-axis rail 61.
- An X-axis motor 63 that is fixed to the machine base 2 and moves the X-axis table 62 along the X-axis rail 61 is provided.
- the Y-axis feed mechanism 60Y is fixed to the X-axis table 62 and extends parallel to each other along the Y-axis direction.
- the Y-axis table 65 is supported so as to be horizontally movable along the Y-axis rail 64.
- a Y-axis motor 66 that is fixed to the X-axis table 62 and moves the Y-axis table 65 along the Y-axis rail 64, a hollow spindle 67 that is rotatably supported by the Y-axis table 65, and a hollow spindle 67
- a chuck rotating motor 68 for rotating the hollow spindle 67 via a belt 69 wound around one end of the chuck 69.
- the hollow spindle 67 has a hollow portion 671 penetrating between both ends along the axis.
- the three-way claw hollow chuck 70 is attached to the other end of the hollow spindle 67.
- the three-way claw hollow chuck 70 is a three-way claw hollow chuck and has a hollow portion 72 (see FIG. 14) penetrating between both ends along the axis.
- the hollow portion 72 of the three-way claw hollow chuck 70 communicates with the hollow portion 671 of the hollow spindle 67.
- the grindstone device 80 includes a grindstone spindle 81 that is rotatably supported on the machine base 2, a disc-shaped grindstone 82 that is attached to one end of the grindstone spindle 81, and a grindstone cover 83 that is fixed on the machine base 2.
- a grinding wheel rotating motor 84 that is fixed to the side of the machine base 2 and rotates the grinding wheel spindle 81 via a belt (not shown) wound around the other end of the grinding wheel spindle 81. Prepare.
- the coolant device 90 is installed on the side of the machine base 2.
- a coolant supply pipe (not shown) is attached from the coolant device 90 toward the hollow portion 671 on one end side of the hollow spindle 67.
- the coolant is supplied from the coolant device 90 to the hollow portion 72 of the three-way claw hollow chuck 70 via the supply pipe and the hollow portion 671 of the hollow spindle 67.
- the valve grinding machine 1 uses the chuck positioning device 60 to place the three-way claw hollow chuck 70 at the charging position of the engine valve V by the grip portion 421 of the support 42 of the workpiece loading device 40 in the workpiece transfer device 5. Can be positioned.
- the valve grinding machine 1 can position the three-way claw hollow chuck 70 positioned at the loading position in the workpiece transfer device 5 in a predetermined processing region in the grindstone device 80.
- the valve grinder 1 uses the chuck positioning device 60 to position the three-way claw hollow chuck 70 at the discharge position of the engine valve V by the contact portion 521 of the discharge arm 52 of the workpiece discharge device 50 in the workpiece transfer device 5. can do.
- the valve grinding machine 1 can position the three-way claw hollow chuck 70 positioned in a predetermined processing area in the grindstone device 80 at the payout position in the workpiece transfer device 5.
- the position of the three-way claw hollow chuck 70 can be determined with respect to the processing area of the grindstone by the valve grinding machine 1 and can be determined with respect to the input and discharge positions of the engine valve V by the work transfer device 5. it can. Therefore, the insertion and discharge of the engine valve V with respect to the three-way claw hollow chuck 70 and the grinding with the grindstone with respect to the engine valve V which is inserted into and fixed to the three-way claw hollow chuck 70 can be performed smoothly. .
- the typical Example of this invention was described, this invention can be implemented with a various form, without restrict
- the engine valve V is handled as a workpiece, but the present invention is not limited to this. That is, it is possible to handle a workpiece having an arbitrary shape other than the engine valve.
- the work transfer device (eg, the work transfer device 5 of the exemplary embodiment) includes a hollow portion (eg, the hollow portion 72 of the exemplary embodiment) and at least three claws (eg, a typical example).
- a multi-claw hollow chuck having a claw 71) of a specific embodiment for example, a three-way claw hollow chuck 70 of a typical embodiment
- the diameter is larger than the diameter that can be inserted in the axial direction of the multi-claw hollow chuck.
- a workpiece transfer device for loading and unloading a workpiece for example, engine valve V of an exemplary embodiment) having a large-diameter portion (for example, an umbrella portion Vb of an exemplary embodiment) at least on one end side.
- a first advancing / retracting device for example, a slider 41 of a typical embodiment
- a swinging device provided on the first advancing / retreating device, and the other end side of the workpiece
- the gripping device eg, the gripping portion 421 of the typical embodiment
- the posture of the gripping device are swung according to the advance / retreat of the first advance / retreat device.
- the posture of the workpiece gripped by the gripping device is swung between a directly facing posture in the axial direction and an inclined posture inclined at a predetermined angle from the first cam mechanism (for example, typical Plate cam 16, cam groove 161, cam roller 46) of a specific embodiment.
- the gripping device swings the workpiece from the inclined posture toward the facing posture according to the first cam mechanism.
- the workpiece transfer device may be configured so that the one end side is put into the multi-claw hollow chuck.
- the gripping device that grips the other end side of the workpiece moves the workpiece from the inclined posture according to the first cam mechanism.
- the one end side having the large diameter portion is put into the multi-claw hollow chuck while swinging toward the directly facing posture. Therefore, using a commercially available multi-claw hollow chuck, the large-diameter part of the workpiece having a larger diameter than the diameter that can be inserted in the axial direction can be converted into a multi-claw hollow chuck without the cost of a custom-made product. Can be thrown in.
- the workpiece transfer device swings between the second advance / retreat device (for example, the slider 51 of a typical embodiment) provided so as to be able to advance and retreat toward the multi-jaw hollow chuck, and the second advance / retreat device.
- An abutting device (for example, an abutting portion 521 in a typical embodiment) that is provided so as to abut against the other end side of the workpiece pushed out from the multi-claw hollow chuck, and a second advancing / retreating device.
- the posture of the contact device according to advancement and retraction is a posture corresponding to a directly facing posture in which the work contacting the contact device is directed in the axial direction, and a posture corresponding to an inclined posture in which the work is inclined at a predetermined angle from now on.
- a second cam mechanism for example, the plate cam 18, the cam groove 181, and the cam roller 56 in the typical embodiment
- the workpiece transfer device may be configured so that the one end side is paid out from the multi-claw hollow chuck.
- the abutting device that abuts the other end side of the workpiece pushed out from the multi-claw hollow chuck corresponds to the second cam mechanism.
- the one end side having the large-diameter portion is paid out from the multi-jaw hollow chuck while the workpiece is swung from the facing posture to the inclined posture. Therefore, using a commercially available multi-claw hollow chuck, the large-diameter part of the workpiece having a diameter larger than the diameter that can be inserted in the axial direction is removed from the multi-claw hollow chuck without using a custom-made product. Can be paid out.
- the workpiece transfer device is a synchronous operation device (e.g., advancing and retracting the first advancing / retreating device and the second advancing / retreating device in synchronization with each other so that when one moves forward, the other moves backward)
- the motor 19, the pinion 191, and the racks 411 and 511) of the exemplary embodiment may be further provided.
- the gripping device puts the large-diameter portion of the workpiece into the multi-jaw hollow chuck, and the second advancing / retreating device has the multi-jaw.
- the timing of the abutting device paying out the large-diameter portion of the workpiece from the multi-claw hollow chuck when retracting from the hollow chuck is collectively controlled and operated synchronously. Therefore, it is possible to avoid the interference between the workpiece loading operation and the dispensing operation.
- the dispensing timing and loading timing are set in a coordinated manner so that no unnecessary blank time is interposed between the dispensing operation and the dispensing operation. be able to. Therefore, the cycle time can be shortened.
- the valve grinding machine (for example, the valve grinding machine 1 of the typical embodiment) includes a workpiece conveying device (for example, the workpiece conveying device 5 of the typical embodiment) and a machine base ( For example, a grindstone (for example, the grindstone 82 of the typical embodiment) provided in the machine base 2) of the typical embodiment and an indexing device (for example, the position of the multi-jaw hollow chuck with respect to the processing region of the grindstone) A chuck positioning device 60) of an exemplary embodiment.
- the indexing device may be configured to index the position of the multi-jaw hollow chuck with respect to the workpiece loading and dispensing positions by the workpiece conveying device.
- the position of the multi-jaw hollow chuck can be determined with respect to the processing area of the grindstone by the valve grinder, and can be determined with respect to the workpiece loading and unloading positions by the workpiece conveying device. Therefore, it is possible to smoothly perform the loading and unloading of the workpiece with respect to the multi-jaw hollow chuck and the grinding with the grindstone for the workpiece loaded into the multi-jaw hollow chuck and fixed.
- a multi-claw hollow chuck e.g., having a hollow portion (e.g., the hollow portion 72 of the exemplary embodiment) and at least three claws (e.g., the pawl 71 of the exemplary embodiment)).
- a large-diameter portion for example, the umbrella portion Vb of the typical embodiment having a diameter larger than the diameter that can be inserted in the axial direction of the plurality of claw hollow chucks.
- the workpiece conveying method for loading and unloading the workpiece for example, the engine valve V of the typical embodiment
- the workpiece is swung from an inclined posture inclined at a predetermined angle from the axial direction toward a directly facing posture in the axial direction by a holding device (for example, a holding portion 421 in a typical embodiment).
- a step of putting the one end side into the multi-jaw hollow chuck, and an abutment device for abutting the other end side of the workpiece pushed out from the multi-jaw hollow chuck may include a step of paying out the one end side from the multi-claw hollow chuck while swinging the workpiece from the directly-facing posture toward the inclined posture.
- the large-diameter portion of the workpiece having a large-diameter portion larger than the diameter that can be inserted in the axial direction of the multi-jaw hollow chuck is introduced into the multi-jaw hollow chuck, and from the multi-jaw hollow chuck, Pay out. Therefore, it is possible to use a commercially available multi-jaw hollow chuck and to load and unload a workpiece with respect to the multi-jaw hollow chuck without incurring the cost of a custom-made product.
- the cycle time can be shortened by cooperatively setting the workpiece input timing and the dispensing timing.
- the valve grinding method includes the above-described workpiece transfer method, the step of determining the position of the multi-jaw hollow chuck with respect to the processing area of the grindstone, and the input and discharge positions of the workpiece And determining the position of the multi-jaw hollow chuck.
- the position of the multi-jaw hollow chuck is determined with respect to the processing area of the grindstone by the valve grinding machine, and is also determined with respect to the workpiece loading and unloading positions by the workpiece conveying device. Therefore, it is possible to smoothly perform the loading and unloading of the workpiece with respect to the multi-jaw hollow chuck and the grinding with the grindstone for the workpiece loaded into the multi-jaw hollow chuck and fixed.
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- Engineering & Computer Science (AREA)
- Mechanical Engineering (AREA)
- Feeding Of Workpieces (AREA)
- Grinding And Polishing Of Tertiary Curved Surfaces And Surfaces With Complex Shapes (AREA)
- Constituent Portions Of Griding Lathes, Driving, Sensing And Control (AREA)
Abstract
Description
図1は、典型的実施例のワーク搬送装置を示す概略的正面図である。図11は、ワーク搬送装置の概略的側面図である。図12は、ワーク搬送装置の概略的平面図である。
ワーク搬送装置5は、ワークとしてのエンジンバルブVを、3方爪中空チャック70に投入し、また、3方爪中空チャック70から払い出すものである。
モータ19は、ワーク投入装置40を支持レール15に沿って往復動させるとともに、ワーク払い出し装置50を支持レール17に沿って往復動させる。
支持アーム34により支持されているエンジンバルブVは、柄側端部Vcをワーク投入装置40の支持体42の把持部421が支持することにより、支持アーム34から把持部421に移し替えられる。これにより、支持アーム34は、エンジンバルブVの支持から解放される。
同様に、図1~図10の各図において示すワーク反転下降装置30の状態は、図1~図10の各図において示すワーク投入装置40およびワーク払い出し装置50の状態にそれぞれ正確には対応していない。
ワーク投入装置40およびワーク払い出し装置50は、モータ19の正逆回転により、一方が前進するときは他方が後退し、また、一方が後退するときは他方が前進する。しかも、一方の前進または後退速度と、他方の後退または前進速度とは、同一速度である。
図14に示すように、エンジンバルブVの傘部Vbの直径d2は、3方爪中空チャック70の中空部72の直径d3よりも小さく、かつ、3方爪中空チャック70の開放時における爪71の先端を通る仮想円の直径(開口径)d1よりも大きい(d1<d2<d3)。そのため、エンジンバルブVの傘部Vbは、エンジンバルブVの軸部Vaを3方爪中空チャック70の軸線と平行にした状態では、3方爪中空チャック70の中空部72に投入することができない。
前述したように、エンジンバルブVの傘部Vbの直径d2と、3方爪中空チャック70の中空部72の直径d3と、開放時における爪71の先端を通る仮想円の直径(開口径)d1との間には、d1<d2<d3の関係がある。そのため、エンジンバルブVの傘部Vbは、エンジンバルブVの軸部Vaを3方爪中空チャック70の軸線と平行にした状態では、3方爪中空チャック70から前側(爪側)に払い出すことができない。
(1)スライダ41が3方爪中空チャック70に向けて前進するとき、エンジンバルブVの柄側端部Vcを把持する把持部421が、カム溝161、カムローラ46に応じてエンジンバルブVを傾斜姿勢から正対姿勢に向かって揺動させながら、傘部Vbを3方爪中空チャック70に投入する。そのため、特注品のコストをかけずに、市販の3方爪中空チャック70を用いて、その軸線方向に挿入可能な直径よりも大径の傘部Vbを有するエンジンバルブVの傘部Vbを、3方爪中空チャック70に投入することができる。
(2)スライダ51が3方爪中空チャック70から後退するとき、3方爪中空チャック70から押し出されるエンジンバルブVの柄側端部Vcを当接させる当接部521が、カム溝181、カムローラ56に応じてエンジンバルブVを正対姿勢から傾斜姿勢に向かって揺動させながら、傘部Vbを3方爪中空チャック70から払い出す。そのため、特注品のコストをかけずに、市販の3方爪中空チャック70を用いて、その軸線方向に挿入可能な直径よりも大径の傘部Vbを有するエンジンバルブVの傘部Vbを、3方爪中空チャック70から払い出すことができる。
(3)スライダ41が3方爪中空チャック70に向けて前進するときに把持部421がエンジンバルブVの傘部Vbを3方爪中空チャック70に投入するタイミングと、スライダ51が3方爪中空チャック70から後退するときに当接部521がエンジンバルブVの傘部Vbを3方爪中空チャック70から払い出すタイミングとを、一括管理して同期作動させる。そのため、エンジンバルブVの投入動作と払い出し動作とが干渉することを未然に回避することができる。
(4)エンジンバルブVの投入動作と払い出し動作との干渉を回避することに加えて、払い出し動作と投入動作との間に無駄な空白時間を介在させないように、払い出しタイミングおよび投入タイミングを協調して設定することができる。よって、サイクルタイムの短縮を図ることができる。
図13は、典型的実施例に係るバルブ研削盤を示す概略的斜視図である。
バルブ研削盤1は、チャック位置決め装置60を用いることによって、ワーク搬送装置5における投入位置に位置決めした3方爪中空チャック70を、砥石装置80における所定の加工領域に位置決めすることができる。
バルブ研削盤1は、チャック位置決め装置60を用いることによって、砥石装置80における所定の加工領域に位置決めした3方爪中空チャック70を、ワーク搬送装置5における払い出し位置に位置決めすることができる。
(5)3方爪中空チャック70の位置を、バルブ研削盤1による砥石の加工領域に対して割り出すことができるとともに、ワーク搬送装置5によるエンジンバルブVの投入および払い出し位置に対して割り出すことができる。そのため、3方爪中空チャック70に対するエンジンバルブVの投入および払い出し、および、3方爪中空チャック70に投入して固定されたエンジンバルブVに対する砥石による研削加工を、いずれもスムーズに行うことができる。
例えば、上記典型的実施例では、ワークとしてエンジンバルブVを取り扱っているが、これに限らない。すなわち、エンジンバルブ以外の任意の形状のワークを取り扱うことが可能である。
ャックを用いて、その軸線方向に挿入可能な直径よりも大径の大径部を有するワークの大径部を複数爪中空チャックから払い出すことができる。
2…機台
5…ワーク搬送装置
16…板カム(第1のカム機構)
161…カム溝(第1のカム機構)
18…板カム(第2のカム機構)
181…カム溝(第2のカム機構)
19…モータ(同期作動装置)
191…ピニオン(同期作動装置)
41…スライダ(第1の進退装置)
411…ラック(同期作動装置)
421…把持部(把持装置)
46…カムローラ(第1のカム機構)
51…スライダ(第2の進退装置)
511…ラック(同期作動装置)
521…当接部(当接装置)
56…カムローラ(第2のカム機構)
60…チャック位置決め装置(割出装置)
70…3方爪中空チャック(複数爪中空チャック)
71…爪
72…中空部
82…砥石
V…エンジンバルブ(ワーク)
Vb…傘部(一端部側)
Vc…柄側端部(他端部側)
Claims (6)
- 中空部(72)および少なくとも3つの爪(71)を有する複数爪中空チャック(70)に対して、当該複数爪中空チャック(70)の軸線方向に挿入可能な直径(d1)よりも大径(d2)の大径部(Vb)を少なくとも一端部側に有するワーク(V)の投入および払い出しを行うワーク搬送装置(5)であって、
前記複数爪中空チャック(70)に向けて進退可能に設けられる第1の進退装置(41)と、
前記第1の進退装置(41)に揺動可能に設けられ、前記ワーク(V)の他端部側(Vc)を把持する把持装置(421)と、
前記第1の進退装置(41)の進退に応じて前記把持装置(421)の姿勢を揺動させることにより、当該把持装置(421)が把持する前記ワーク(V)の姿勢を、前記軸線方向に向いた正対姿勢と、これから所定角度傾いた傾斜姿勢との間で揺動させる第1のカム機構(16,161,46)と、
を具備し、
前記第1の進退装置(41)が前記複数爪中空チャック(70)に向けて前進するとき、前記把持装置(421)が、前記第1のカム機構(16,161,46)に応じて前記ワーク(V)を前記傾斜姿勢から前記正対姿勢に向かって揺動させながら、前記一端部側(Vb)を前記複数爪中空チャック(70)に投入するように構成されている、
ワーク搬送装置(5)。 - 前記複数爪中空チャック(70)に向けて進退可能に設けられる第2の進退装置(51)と、
前記第2の進退装置(51)に揺動可能に設けられ、前記複数爪中空チャック(70)から押し出される前記ワーク(V)の前記他端部側(Vc)を当接させる当接装置(521)と、
前記第2の進退装置(51)の進退に応じて前記当接装置(521)の姿勢を、当該当接装置(521)に当接する前記ワーク(V)が前記軸線方向に向く正対姿勢に相当する姿勢と、前記ワーク(V)がこれから所定角度傾く傾斜姿勢に相当する姿勢との間で揺動させる第2のカム機構(18,181,56)と、
をさらに具備し、
前記第2の進退装置(51)が前記複数爪中空チャック(70)から後退するとき、前記当接装置(521)が、前記第2のカム機構(18,181,56)に応じて前記ワーク(V)を前記正対姿勢から前記傾斜姿勢に向かって揺動させながら、前記一端部側(Vb)を前記複数爪中空チャック(70)から払い出すように構成されている、
請求項1に記載のワーク搬送装置(5)。 - 前記第1の進退装置(41)と、前記第2の進退装置(51)とを、一方が前進するとき他方が後退するように互いに同期して進退させる同期作動装置(19,191,411,511)、をさらに具備する、
請求項2に記載のワーク搬送装置(5)。 - 請求項1~3のいずれか1項に記載のワーク搬送装置(5)と、
機台(2)に設けられる砥石(82)と、
前記砥石(82)の加工領域に対して前記複数爪中空チャック(70)の位置を割り出す割出装置(60)と、
を具備し、
前記割出装置(60)は、前記ワーク搬送装置(5)による前記ワーク(V)の投入および払い出し位置に対して前記複数爪中空チャック(70)の位置を割り出すように構成されている、
バルブ研削盤(1)。 - 中空部(72)および少なくとも3つの爪(71)を有する複数爪中空チャック(70)に対して、当該複数爪中空チャック(70)の軸線方向に挿入可能な直径(d1)よりも大径(d2)の大径部(Vb)を少なくとも一端部側に有するワーク(V)の投入および払い出しを行うワーク搬送方法であって、
前記ワーク(V)の他端部側(Vc)を把持する把持装置(421)により、前記ワーク(V)を、前記軸線方向から所定角度傾いた傾斜姿勢から、前記軸線方向に向いた正対姿勢に向かって揺動させながら、前記一端部側(Vb)を前記複数爪中空チャック(70)に投入する工程と、
前記複数爪中空チャック(70)から押し出される前記ワーク(V)の前記他端部側(Vc)を当接させる当接装置(521)により、前記ワーク(V)を、前記正対姿勢から前記傾斜姿勢に向かって揺動させながら、前記一端部側(Vb)を前記複数爪中空チャック(70)から払い出す工程と、
を含む、ワーク搬送方法。 - 請求項5に記載のワーク搬送方法を含むバルブ研削方法であって、
砥石(82)の加工領域に対して前記複数爪中空チャック(70)の位置を割り出す工程と、
前記ワーク(V)の投入および払い出し位置に対して前記複数爪中空チャック(70)の位置を割り出す工程と、
を含む、バルブ研削方法。
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CN201180015374.5A CN102821913B (zh) | 2010-03-25 | 2011-03-22 | 工件输送装置和具备该工件输送装置的气门磨床、以及工件输送方法和气门磨削方法 |
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CN107570726A (zh) * | 2017-10-10 | 2018-01-12 | 浙江金汤机床有限公司 | 发动机气门连续全自动加工专用数控车床及其方法 |
CN115003899A (zh) * | 2020-07-14 | 2022-09-02 | 富士乌兹克斯株式会社 | 伞中空发动机气门的冷却材料填充装置以及冷却材料的填充方法 |
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CN105666313B (zh) * | 2016-03-03 | 2018-02-27 | 安庆市鼎立汽车配件有限公司 | 一种用于气门杆端部研磨的装置 |
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CN107570726A (zh) * | 2017-10-10 | 2018-01-12 | 浙江金汤机床有限公司 | 发动机气门连续全自动加工专用数控车床及其方法 |
CN107570726B (zh) * | 2017-10-10 | 2023-06-06 | 浙江金汤机床有限公司 | 发动机气门连续全自动加工专用数控车床及其方法 |
CN115003899A (zh) * | 2020-07-14 | 2022-09-02 | 富士乌兹克斯株式会社 | 伞中空发动机气门的冷却材料填充装置以及冷却材料的填充方法 |
CN115003899B (zh) * | 2020-07-14 | 2024-03-08 | 富士乌兹克斯株式会社 | 伞中空发动机气门的冷却材料填充装置以及冷却材料的填充方法 |
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JPWO2011118593A1 (ja) | 2013-07-04 |
JP5572695B2 (ja) | 2014-08-13 |
CN102821913A (zh) | 2012-12-12 |
CN102821913B (zh) | 2015-05-13 |
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