JP2019006181A - Lever device of speed changer - Google Patents

Abstract

To provide a lever device of a speed changer which can prevent malfunction of shift change by a user with a simple and strong configuration.SOLUTION: A lever device 10 mainly comprises: a shift lever 18 which is moved along a shift direction by user's shift operation; a guide rod 13 which is built in the shift lever 18, and of which a contact part formed on a tip side thereof is displaced by user's operation of an operation part of the shift lever; a guide member 14 which has plural shift positions of the shift lever 18 along the shift direction, and has a stopper part which comes into contact with the contact part of the guide rod 13, thereby regulating movement of the guide rod in the shift direction; and a movable guide part 15 which is located at the shift position of the guide member 14, and is pressed against the contact part of the guide rod 13, and thus is dislocated along an axial direction of the guide rod 13 while energizing an energy body.SELECTED DRAWING: Figure 1

Description

  The present invention relates to a transmission lever device, and more particularly, to a transmission lever device having an operation unit that a user pushes in to shift a position.

  In a vehicle such as a passenger car, a transmission that changes power torque and the number of revolutions is interposed in a power transmission path that transmits power generated from an engine, and a user changes a shift position in the transmission. The lever device is provided.

  Patent Document 1 describes an example of a lever device. This type of shift lever device includes a shift lever that swings in a shift direction about a support shaft provided on a base fixed to a vehicle body, and an operation that is inserted into the shift lever and provided above the shift lever. It has a guide rod that moves in the axial direction in response to the pressing operation of the button. Further, this type of shift lever device has a guide plate on which a guide having an edge shape for restricting a moving range in the shift direction of a position pin provided on the guide rod is formed. As this position, a P (parking) position, an R (reverse) position, an N (neutral) position, a D (drive) position, and the like are arranged along the shift direction.

  In the guide formed on this type of guide plate, a protrusion is formed between the P position and the R position, and a stepped stopper surface is formed between the R position and the N position. The position and the D position are continuously formed at the low position.

  With this configuration, pressing the operation button on the shift lever to raise the position pin avoids contact with the protrusion, and shift operation from the P position to other shift positions such as the R position, N position, and D position can do. Further, when shifting from the D position to the R position via the N position, the operation can be performed by pressing the operation button to raise the position pin to avoid contact with the stepped stopper surface.

  A lever device having a configuration for preventing malfunction of the lever device has also been developed. The lever device will be described with reference to FIG. The lever device 100 shown in this figure is provided with a protruding piece 102 biased by a spring on the detent plate 101. When the position pin 104 of the lever 103 is engaged with the protruding piece 102, the lever device malfunctions. Is prevented.

JP 10-35308 A JP 2014-201185 A

  However, in the lever device 100 described above, the thin protruding piece 102 is engaged with the position pin 104 to suppress the malfunction of the lever 103. However, when the user gives a large operating force to the lever 103, the thin protruding piece 102 It was also considered that the rigidity with which 102 can receive the operation force is difficult to be secured.

  Further, since the tip of the protruding piece 102 is inclined with respect to the shift direction, the movement of the lever 103 in one direction is not restricted by the protruding piece 102. However, if the shift device is used for a long time, the protruding piece It is also conceivable that the tip of 102 is worn.

  The present invention has been made in view of the above circumstances, and an object of the present invention is to provide a transmission lever device that can prevent a user's shift change malfunction with a simple and robust configuration. There is.

  The transmission lever device according to the present invention includes a shift lever that moves along a shift direction by a user's shift operation, and a built-in shift lever, and the user operates the operation portion of the shift lever to move the distal end side thereof. The guide rod formed on the guide rod is displaced, and the shift lever has a plurality of shift positions along the shift direction, and comes into contact with the contact portion of the guide rod. A guide member having a stopper portion that restricts movement in the shift direction, and a state in which the elastic body is urged by being placed at the shift position of the guide member and being pressed by the contact portion of the guide rod And a movable guide part that is displaced along the axial direction of the guide rod.

  In the lever device of the transmission according to the present invention, the guide member has a stopper wall extending along the axial direction of the guide rod, and the movable guide portion is adjacent to the stopper wall of the guide member. Features.

  In the lever device for a transmission according to the present invention, the movable guide portion is disposed on one end side across the drive position.

  In the lever device for a transmission according to the present invention, the movable guide portion is disposed on both ends of the drive position.

  In the lever device for a transmission according to the present invention, the elastic body is a spring provided in the guide member.

  In the lever device for a transmission according to the present invention, a plurality of the shift positions are formed in the movable guide portion, and a step portion is formed in the shift position of the movable guide portion closest to the drive position. .

  In the lever device of the transmission according to the present invention, the guide rod is a load push-up type that moves upward when the user pushes the operation portion, and the movable guide portion is pushed downward from the guide rod. Features.

  In the lever device of the transmission according to the present invention, the guide rod is a load push-down type that moves downward when the user pushes the operation portion, and the movable guide portion is pushed upward from the guide rod. Features.

  The transmission lever device according to the present invention includes a shift lever that moves along a shift direction by a user's shift operation, and a built-in shift lever, and the user operates the operation portion of the shift lever to move the distal end side thereof. The guide rod formed on the guide rod is displaced, and the shift lever has a plurality of shift positions along the shift direction, and comes into contact with the contact portion of the guide rod. A guide member having a stopper portion that restricts movement in the shift direction, and a state in which the elastic body is urged by being placed at the shift position of the guide member and being pressed by the contact portion of the guide rod And a movable guide part that is displaced along the axial direction of the guide rod. Therefore, when the movable guide part is pressed by the contact portion of the guide rod and is displaced along the axial direction of the guide rod while urging the elastic body, the contact portion of the guide rod is lowered. Can hold. Therefore, for example, when the shift lever is set to the brake position, the contact portion of the guide rod is pushed in from the contact surface of the reverse position. Therefore, even if the user shifts the shift lever from the brake position to the drive position without operating the shift lever operation unit, the shift lever jumps over the drive position against the user's intention and reverse position. Can be prevented from being shifted by mistake.

  In the lever device of the transmission according to the present invention, the guide member has a stopper wall extending along the axial direction of the guide rod, and the movable guide portion is adjacent to the stopper wall of the guide member. Features. Therefore, when the contact portion of the guide rod comes into contact with the movable guide portion from the side, the movable guide portion is supported by the stopper wall of the adjacent guide member, so that the movable guide portion can be reinforced.

  In the lever device for a transmission according to the present invention, the movable guide portion is disposed on one end side across the drive position. Therefore, by disposing the movable guide part at one end side across the drive position, for example, at the brake position, when changing from the brake position to the drive position, the drive position is skipped and the reverse position is disposed at the other end side, for example Can be prevented from being shifted by mistake.

  In the lever device for a transmission according to the present invention, the movable guide portion is disposed on both ends of the drive position. Therefore, for example, when a brake position is arranged at one end of the drive position and a reverse position is arranged at the other end of the drive position, when shifting from the brake position to the drive position, the shift position is erroneously shifted. Is deterred. Further, when shifting from the reverse position to the drive position, it is possible to prevent erroneous shift to the brake position.

  In the lever device for a transmission according to the present invention, the elastic body is a spring provided in the guide member. Therefore, when the guide rod is in the drive position by applying an urging force to the movable guide portion by the spring, the guide rod abuts on the side surface of the movable guide portion, so that the guide rod is shifted to the brake position, for example. Deter. Furthermore, when the user operates the operating portion to shift the guide rod while displacing it along the axial direction, the guide member pressed against the guide rod can be allowed to be pushed in while urging the spring.

  In the lever device for a transmission according to the present invention, a plurality of the shift positions are formed in the movable guide portion, and a step portion is formed in the shift position of the movable guide portion closest to the drive position. . Therefore, for example, when a shift change is made from a plurality of deceleration stages provided in the vicinity of the drive position, it is possible to prevent the shift from unintentionally entering the reverse position.

  In the lever device of the transmission according to the present invention, the guide rod is a load push-up type that moves upward when the user pushes the operation portion, and the movable guide portion is pushed downward from the guide rod. Features. Therefore, the operability of the load push-up lever device can be improved.

  In the lever device of the transmission according to the present invention, the guide rod is a load push-down type that moves downward when the user pushes the operation portion, and the movable guide portion is pushed upward from the guide rod. Features. Therefore, the operability of the load push-down lever device can be improved.

It is sectional drawing which shows the lever apparatus of the transmission which concerns on one Embodiment of this invention. It is a figure which shows the lever apparatus of the transmission which concerns on one Embodiment of this invention, (A) And (B) is sectional drawing which shows the structure and operation | movement which a guide member guides a guide rod. It is a figure which shows the lever apparatus of the transmission which concerns on one Embodiment of this invention, (A) And (B) is sectional drawing which shows the structure and operation | movement which a guide member guides a guide rod. It is a figure which shows the lever apparatus of the transmission which concerns on one Embodiment of this invention, (A), (B) and (C) are sectional drawings which show the structure and operation | movement which a guide member guides a guide rod. It is a figure which shows the lever apparatus of the transmission which concerns on one Embodiment of this invention, (A) And (B) is sectional drawing which shows the structure and operation | movement which a guide member guides a guide rod. It is sectional drawing which shows the lever apparatus of the transmission which concerns on other embodiment of this invention. It is sectional drawing which shows the lever apparatus of the transmission which concerns on background art.

  Hereinafter, a lever device 10 for a transmission according to an embodiment of the present invention will be described in detail with reference to the drawings. In the following description, the same reference numerals are used for the same members in principle, and repeated descriptions are omitted. Furthermore, in the following description, the lever device 10 of the transmission is simply referred to as a lever device 10.

  The configuration of the lever device 10 will be described with reference to FIG. The lever device 10 is a lever that is adjacent to a seat on which a user who steers the vehicle sits in a vehicle such as a passenger car, and for the user to change a shift position. Specifically, the lever device 10 is built in the shift lever 18 that moves in the shift direction by the shift operation of the user and the shift lever 18, and the tip of the lever device 10 is operated by the user operating the operation unit 11 of the shift lever 18. The guide rod 13 formed on the side of the guide rod 13 is displaced, and the shift lever 18 has a plurality of shift positions along the shift direction. The guide rod 13 abuts on the abutment portion 21 of the guide rod 13. 13 is a guide member 14 having a stopper portion that restricts movement in the shift direction, and is disposed at a shift position of the guide member 14 and is pressed by the contact portion 21 of the guide rod 13 to urge the elastic body. And a movable guide portion 15 that is displaced along the axial direction of the guide rod 13. The lever device 10 is a load push-up type in which the guide rod 13 moves upward when the user pushes the operation unit 11.

  The shift lever 18 is a substantially rod-like member that extends substantially vertically on the paper surface, and has a shape that the user can easily hold at the upper end near the time of a shift change. The shift lever 18 moves along the front-rear direction, which is the shift direction, by an operation of a user who desires a shift change. The shift lever 18 performs a shift change in the front-rear direction by swinging about the swing center 20.

  The guide rod 13 is a rod-like member built in a slidable state on the shift lever 18, and is formed of, for example, a steel rod. The upper end side of the guide rod 13 is connected to the operation unit 11 via the swing arm 12. The guide rod 13 is always urged downward by an urging means (not shown) such as a spring. By doing in this way, the contact part 21 which is the front-end | tip part of the guide rod 13 is fixed to the stopper site | part of the guide member 14 mentioned later, and the shift change which a user does not intend is prevented.

  The operation unit 11 is disposed in front of the upper end side of the shift lever 18 and is rotatable about the upper end side as a fulcrum. Further, the operation unit 11 is urged to a predetermined position forward by an urging means such as a spring (not shown). The swing arm 12 is attached to the operation unit 11 from the rear with its front end being swingable, and its rear end is engaged in the vicinity of the upper end of the guide rod 13. When the user pushes the operation unit 11 rearward, the swing arm 12 swings to push up the guide rod 13, and a contact portion 21, which is the lower end of the guide rod 13, serves as a stopper for the guide member 14 described later. The shift lever 18 can be moved in the front-rear direction without any restriction.

  The guide member 14 is made of steel or synthetic resin, and a plurality of shift positions are formed on the upper surface thereof. Here, as an example, a P (parking) position, an R (reverse) position, an N (neutral) position, a D (drive) position, and a B (brake) position are formed from the front. Here, the B position is a position for operating the engine brake.

  A plurality of stopper portions are formed on the guide member 14 in order to prevent an inadvertent shift change in a situation where the operation unit 11 is not pushed. Specifically, as the stopper portion, from the front, a stopper groove 25 formed in the P position pin, a stopper wall 26 formed in front of the R position pin, a stopper wall 27 formed in front of the N position pin, and B position A stopper wall 28 formed behind the pin and a stopper wall 29 formed behind the pin are provided.

  A movable guide portion 15 that is movable along the axial direction of the guide rod 13 is disposed at a portion corresponding to the B position of the guide member 14. The movable guide portion 15 is partially housed in a hole 17 in which the guide member 14 is recessed, and is urged upward by a spring 16 that is an elastic body. The guide member 14 is made of a metal or resin material having a shape, size, and hardness capable of supporting the guide rod 13 from below. Here, the movable guide part 15 is formed only at the rear end of the drive position. However, as will be described later, the movable guide part 15 may be arranged on both sides in the front-rear direction across the drive position.

  With reference to FIG. 2, the above-described movable guide portion 15 will be described in further detail. 2A shows a case where the guide rod 13 is in the D position, and FIG. 2B shows a case where the guide rod 13 is in the B position.

  Referring to FIG. 2A, here, the user shifts the shift lever 18 shown in FIG. 1 rearward, thereby shifting the guide rod 13 to the D position. In this case, since the pressing force does not act on the movable guide part 15, the protruding length of the movable guide part 15 from the guide member 14 is long. Further, when the shift lever 18 is shifted to the D position, the abutting portion 21 of the guide rod 13 abuts on the movable guide portion 15 to prevent the rearward movement. In this embodiment, since the movable guide portion 15 is firmly supported from behind by the stopper wall 28 of the guide member 14, the guide rod 13 is moved from the front to the movable guide portion 15 by vigorously performing the shift operation. Even when the contact is strong, the movable guide portion 15 is prevented from being damaged.

  Referring to FIG. 2 (B), when the user pushes the operation unit 11 and pulls up the guide rod 13, the shift lever 18 is shifted to the B position. In this state, when the user releases the push of the operation unit 11, The contact portion 21 of the guide rod 13 presses the movable guide portion 15 from above. With this pressing, the spring 16 that supports the movable guide portion 15 from below is compressed, and the movable guide portion 15 is balanced at a slightly lowered position. Here, the spring 16 may be compressed until it becomes a so-called bottomed state, or the spring 16 may be compressed halfway so as not to be bottomed. Here, the upper surface of the pushed-in movable guide portion 15 is disposed above the upper surface of the D position, but the upper surface of the pushed-in movable guide portion 15 may be arranged at the same level as the upper surface of the D position. .

  If it becomes like this, level difference L11 of movable guide part 15 which is B position will become shorter than level difference L10 of stopper wall 27 formed between N position and R position. Therefore, even when the user changes the shift position from the B position to the D position or the N position, the step lever amount L10 of the stopper wall 27 can be increased even if the shift lever 18 is vigorously shifted forward without pressing the operation unit 11. Since it is set relatively high, the guide rod 13 is prevented from unintentionally moving to the R position. Further, as described above, the guide rod 13 is always urged downward along the axial direction. However, even if this urging force is small, the movable guide portion 15 falls and the step difference amount L11 is reduced, so that the guide rod 13 is reduced. 13 can be prevented from being erroneously shifted to the R position.

  Further, when the guide rod 13 abuts the movable guide part 15 from above, the guide rod 13 softly abuts the movable guide part 15 because the movable guide part 15 is supported by the spring 16 from below. Therefore, the operation sound generated when the guide rod 13 contacts the movable guide portion 15 can be reduced, and the texture can be improved.

  With reference to FIG. 3, the other structure of the movable guide part 15 is demonstrated. Here, the movable guide portion 15 is disposed at a position corresponding to the R position of the guide member 14. 3A shows the case where the guide rod 13 is in the N position, and FIG. 3B shows the case where the guide rod 13 is in the R position.

  Referring to FIG. 3A, here, a hole portion 17 is formed at a position corresponding to the R position of the guide member 14, and a spring 16 and a movable guide portion 15 are disposed in the hole portion 17. When the guide rod 13 is shift-changed from the rear to the N position, the guide rod 13 comes into contact with the side surface of the movable guide portion 15 from the rear, but the movable guide portion 15 is supported by the stopper wall 26 from the front. Damage to the movable guide portion 15 due to contact is prevented.

  Referring to FIG. 3 (B), when the user pushes the operation unit 11 and pulls up the guide rod 13, the shift lever 18 is shifted to the R position. In this state, when the user releases the push of the operation unit 11, The contact portion 21 of the guide rod 13 presses the movable guide portion 15 from above. With this pressing, the spring 16 that supports the movable guide portion 15 from below is compressed, and the movable guide portion 15 is balanced at the lowered position.

  If it becomes like this, level difference L21 of movable guide part 15 which is R position will become shorter than level difference L20 of stopper wall 28 formed between B position and D position. Therefore, even if the user changes the shift position from the R position to the D position or the N position, even if the shift lever 18 is vigorously shifted backward without pushing the operating portion 11, the step amount L20 of the stopper wall 28 is not increased. Since it is set relatively high, the guide rod 13 is prevented from unintentionally moving to the B position.

  With reference to FIG. 4, another configuration of the movable guide portion 15 will be described. Here, the movable guide portion 15A is disposed at a position corresponding to the R position of the guide member 14, and the movable guide portion 15B is disposed at a position corresponding to the B position. 4A shows a case where the guide rod 13 is in the N position, FIG. 4B shows a case where the guide rod 13 is in the B position, and FIG. 4C shows that the guide rod 13 is in the B position. A state in which the R position is set is shown.

  Referring to FIG. 4A, a hole 17A is formed at a position corresponding to the R position of the guide member 14, and a spring 16A and a movable guide portion 15A are arranged in the hole 17A. Similarly, a hole 17B is formed at a position corresponding to the B position of the guide member 14, and a spring 16B and a movable guide part 15B are disposed in the hole 17B. Thus, the backward movement of the guide rod 13 is restricted by the movable guide portion 15B formed immediately after the D position, and the front of the guide rod 13 is moved by the movable guide portion 15A formed immediately before the N position. Movement to is regulated.

  Referring to FIG. 4 (B), when the user pushes the operating portion 11 and pulls up the guide rod 13, the shift lever 18 is shifted to the B position. In this state, when the user releases the pushing of the operating portion 11, The contact portion 21 of the guide rod 13 presses the movable guide portion 15B from above. With this pressing, the spring 16B that supports the movable guide portion 15B from below is compressed, and the movable guide portion 15 is balanced at a slightly lowered position. If it becomes like this, level difference L31 of movable guide part 15B which is B position will become shorter than level difference L30 of movable guide part 15B arranged before N position. Therefore, even if the user changes the shift position from the B position to the D position or the N position, even if the shift lever 18 is vigorously shifted forward without pressing the operation unit 11, the step amount L30 of the movable guide portion 15A. Is set relatively high, the guide rod 13 is prevented from unintentionally moving to the R position.

  Referring to FIG. 4C, the user pushes the operation unit 11 to raise the guide rod 13 and shifts the shift lever 18 to the R position. When the user releases the push of the operation unit 11 in this state, The contact portion 21 of the guide rod 13 presses the movable guide portion 15A from above. With this pressing, the spring 16A that supports the movable guide portion 15 from below is compressed, and the movable guide portion 15 is balanced at the lowered position. If it becomes like this, the level difference amount L30 of the movable guide part 15 which is R position will become shorter than the level difference amount L31 of the movable guide part 15B arrange | positioned in B position. Therefore, even if the user changes the shift position from the R position to the D position, the step amount L31 of the movable guide portion 15B is relatively small even if the shift lever 18 is vigorously shifted backward without pushing the operation unit 11. Since it is set high, the guide rod 13 is prevented from unintentionally moving to the B position.

  With reference to FIG. 5, the structure of the guide member 14 which concerns on another another form is demonstrated. Here, the movable guide portion 15 is formed from 3 positions to 1 position, and a step portion is formed at a portion corresponding to the 3 positions of the movable guide portion 15. 5A shows a case where the guide rod 13 is in the D position, and FIG. 5B shows a case where the guide rod 13 is in the 2 position.

  Referring to FIG. 5A, here, the user shifts the shift lever 18 shown in FIG. 1 toward the rear, thereby shifting the guide rod 13 to the D position. Since the abutting portion 21 of the guide rod 13 abuts on the front end of the movable guide portion 15, the rearward movement of the shift lever 18 not shown here is restricted.

  Referring to FIG. 5 (B), when the user pushes the operating portion 11 and pulls up the guide rod 13, the shift lever 18 is shifted to the 2 position, and in this state, when the user releases the pushing of the operating portion 11, The contact portion 21 of the guide rod 13 presses the movable guide portion 15 from above. With this pressing, the spring 16 that supports the movable guide portion 15 from below is compressed, and the movable guide portion 15 is balanced at a slightly lowered position.

  In this case, the step amount L41 of the movable guide portion 15 at the two positions is shorter than the step amount L40 of the stopper wall 26 formed between the N position and the R position. Therefore, even when the user changes the shift position from the B position to the D position or the N position, even if the shift lever 18 is vigorously shifted forward without pushing the operating portion 11, the step amount L40 of the stopper wall 26 is not increased. Since it is set relatively long, the guide rod 13 is prevented from unintentionally moving to the R position.

  With reference to FIG. 6, the structure of the lever apparatus 10 which concerns on another form is demonstrated. The configuration of the lever device 10 shown in this figure is basically the same as that shown in FIG. 1, and the shape of the guide member 14 is different. The lever device 10 shown in this figure is a load push-down type in which the contact portion 21 disposed on the lower end side of the guide rod 13 moves downward when the user pushes the operation portion 11. The abutting portion 21 protrudes outward from a long hole 30 formed in the guide rod 13, is movable up and down along the long hole 30, and is constantly urged upward by a biasing means (not shown). ing.

  The guide member 14 is formed with a stopper portion for defining a P position, an R position, an N position, a D position, and a B position on the lower side. In addition, the shift operation of the guide rod 13 is restricted by the contact portion 21 of the guide rod 13 coming into contact with a predetermined portion of the guide member 14.

  A movable guide portion 15 that is movable along the axial direction of the guide rod 13 is disposed at a portion corresponding to the B position of the guide member 14. The movable guide portion 15 is partially housed in a hole 17 in which the guide member 14 is recessed, and is urged downward by a spring 16 that is an elastic body.

  When the user pushes the operation unit 11 and shifts the shift lever 18 rearward to the B position to release the pressing of the operation unit 11, the movable guide portion 15 is pushed upward by the contact portion 21. Therefore, even if the user subsequently shifts the shift lever 18 without pushing the operation unit 11, it is prevented that the shift position is erroneously changed to the R position. Moreover, the structure shown in FIG. 2 thru | or FIG. 5 is applicable to the lever apparatus 10 of the other form shown in this figure.

  As mentioned above, although embodiment of this invention was shown, this invention is not limited to the said embodiment.

DESCRIPTION OF SYMBOLS 10 Lever apparatus 11 Operation part 12 Swing arm 13 Guide rod 14 Guide member 15, 15A, 15B Movable guide part 16, 16A, 16B Spring 17, 17A, 17B Hole part 18 Shift lever 20 Swing center 21 Contact part 25 Stopper Groove 26 Stopper wall 27 Stopper wall 28 Stopper wall 29 Stopper wall 30 Long hole 100 Lever device 101 Detent plate 102 Projection piece 103 Lever 104 Position pin

Claims (8)

A shift lever that moves along the shift direction by the user's shift operation;
A guide rod that is built in the shift lever, and a contact portion formed on a front end side of the shift lever is displaced when the user operates the operation portion of the shift lever;
A guide having a plurality of shift positions of the shift lever along the shift direction and having a stopper portion that restricts movement of the guide rod in the shift direction by contacting the contact portion of the guide rod. Members,
A movable guide portion that is disposed at the shift position of the guide member and is displaced along the axial direction of the guide rod in a state in which the elastic body is biased by being pressed by the contact portion of the guide rod; A transmission lever device. The guide member has a stopper wall extending along the axial direction of the guide rod,
The lever device for a transmission according to claim 1, wherein the movable guide portion is adjacent to the stopper wall of the guide member.   3. The lever device for a transmission according to claim 1, wherein the movable guide portion is disposed on one end side across a drive position. 4.   3. The lever device for a transmission according to claim 1, wherein the movable guide portion is disposed on both ends of the drive position.   The transmission lever device according to any one of claims 1 to 4, wherein the elastic body is a spring provided in the guide member. A plurality of the shift positions are formed in the movable guide part,
The transmission lever device according to any one of claims 1 to 5, wherein a step portion is formed at the shift position of the movable guide portion closest to the drive position. The guide rod is a load push-up type that moves upward when the user pushes the operation unit,
The lever device for a transmission according to any one of claims 1 to 6, wherein the movable guide portion is pushed downward from the guide rod. The guide rod is a load push-down type that moves downward when the user pushes the operation unit,
The lever device for a transmission according to any one of claims 1 to 6, wherein the movable guide portion is pushed upward from the guide rod.

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