JP2018017353A - Cable adjustment device of manual transmission - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a cable adjustment device of a manual transmission which can largely improve the workability of the adjustment work of a gear change cable.SOLUTION: A positioning mechanism 6 comprises a boss 62, a pin 63, a spring 64 and a snap ring 65. The pin 63 moves in an axial line direction in a position in which an outer lever 31 is held at a prescribed adjustment position, and is accommodated in the boss 62. The pin 63 is energized in a direction in which the pin separates from the outer lever 31 by an energization force of the spring 64. The pin 63 is engaged with an engagement part 31a of the outer lever 31 together with the snap ring 65 in an engagement position in which the pin moves against the energization force of the spring 64, and positioned. When a select lever 1 is selected and operated to a prescribed select operation position, the outer lever 31 turns, the engagement of the snap ring 65 and the engagement part 31a is released, and the pin 63 moves to the accommodation position of the boss 62, and is accommodated therein.SELECTED DRAWING: Figure 3

Description

  The present invention relates to a cable adjustment device for a manual transmission applied to a manual transmission.

  Conventionally, for example, a cable adjustment device for a manual transmission (hereinafter referred to as “conventional device”) for adjusting the length (tension) of a transmission cable disclosed in Patent Document 1 and Patent Document 2 below. Are known. In these conventional apparatuses, in order to cope with the adjustment work for adjusting the length (tension) of the transmission cable performed when the manual transmission is mounted on the vehicle, the outer lever is attached using a detachable positioning pin. It is positioned at a predetermined adjustment position.

JP 2009-79601 A JP 2010-276123 A

  By the way, in the above-described conventional apparatus, it is necessary to remove the positioning pin from the transmission when the cable adjustment work is completed. In this case, for example, the operator needs to work to get into the lower part of the vehicle and remove the positioning pin, which is extremely complicated. There is a strong demand for an improvement in the removal operation of such positioning pins.

  The present invention has been made to solve the above problems. That is, an object of the present invention is to provide a cable adjustment device for a manual transmission that can greatly improve the workability of the adjustment operation of the transmission cable performed when the manual transmission is mounted on a vehicle. It is in.

  In order to solve the above-described problems, the invention of the cable adjustment device for a manual transmission according to claim 1 includes a select lever that is selected by a driver during a shift operation, and four operation positions of the select operation by the select lever. A gate that guides the operation position described above, a case that houses the speed change mechanism, a select shaft that is provided inside the case and that causes the speed change mechanism to shift according to a select operation by the select lever, and is provided outside the case. Connected to the select shaft and coupled to the select lever so that the operating force input to the select lever is transmitted via the speed change cable, and is rotated or selected by the transmitted operating force. An outer lever that moves along the axial direction of the And a return mechanism that returns the lever to the neutral position in the select operation direction at the gate. The outer lever is displaced in conjunction with the select operation on the select lever, and the select lever is returned to the neutral position by the return mechanism. In the cable adjusting device of the manual transmission that is applied to the manual transmission configured to be displaced to the neutral displacement position corresponding to the neutral position in conjunction with the shift position, the neutral position of the select lever Unlike the positioning mechanism for adjusting the select lever position, the positioning mechanism for positioning the outer lever at a predetermined adjustment position for adjusting the speed change cable corresponding to the adjustment position of the select lever. It is provided at a position to be positioned at a predetermined adjustment position and can move in the axial direction. An engaging portion formed on the outer surface of the outer lever or the case, a pin selectively engaged with or released from the engaging portion in accordance with movement in the axial direction, and an outer surface of the case Alternatively, a cylindrical boss formed on the outer lever to movably accommodate the pin, and disposed between the pin and the boss, from an engagement position where the pin engages with the engagement portion, A biasing member that biases the pin so that the pin is moved to a receiving position where the engagement is released and accommodated in the boss, and a pin provided at the tip of the pin and engaged with the engaging portion is A pin holding member that holds the engaging position against the urging force, and the select lever is selectively operated at a predetermined select operation position in a direction away from the neutral position of the select lever in the gate, so that the outer lever is neutrally displaced. When moving in a direction away from the position, It is comprised so that holding | maintenance of the pin in an engagement position may be cancelled | released.

  According to this, the positioning mechanism is an engagement position where the pin and the pin holding member are formed on the outer surface of the case or on the outer surface of the case at the engagement position where the pin moves in the axial direction from the boss. When engaged with the portion, the outer lever can be positioned at a predetermined adjustment position. As a result, when the manual transmission is mounted on the vehicle, the adjustment operation position of the select lever and the predetermined adjustment position of the outer lever can be brought into correspondence with each other. The outer lever can be connected via a transmission cable.

  The outer lever connected to the select lever via the speed change cable is biased in the neutral displacement position direction by the return mechanism, so that the engaging portion of the pin and the outer lever or the engaging portion of the case It can contact | abut, without producing a clearance gap between. Therefore, in the adjustment work in which the operator adjusts the length (tension) of the transmission cable, the positioning mechanism can position the outer lever at the adjustment position very accurately.

  In addition, after the adjustment work, the operator can only engage the pin and the pin holding member with the engaging portion of the outer lever or the case by selecting the select lever to a predetermined select operation position in the vehicle interior. The engagement with the part can be released. Accordingly, it is not necessary to perform an operation of entering the lower part of the vehicle to release the positioning of the outer lever, and the positioning of the outer lever by the pin can be released by an extremely easy operation. Thereby, workability | operativity of the adjustment work by an operator can be improved significantly. Furthermore, the pin and the pin holding member do not contact the outer lever and the case after moving to the accommodation position. Therefore, after the adjustment work, the select lever can be operated freely.

1 is a schematic view of a manual transmission according to an embodiment of a cable adjusting device according to the present invention. It is the schematic for demonstrating the guide position of selection operation of the shift and select lever (select lever) by the shift and select gate (gate) of FIG. It is the schematic which shows the positioning mechanism which comprises the cable adjustment apparatus of FIG. It is sectional drawing which expands and shows the principal part of the positioning mechanism of FIG. It is a figure for demonstrating the return mechanism which returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. 1, and is the schematic which shows the state corresponding to the neutral position of FIG. It is a figure for demonstrating the return mechanism which returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. 1, and is the schematic which shows the state corresponding to the High operation position of FIG. It is a figure for demonstrating the return mechanism which returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. 1, and is the schematic which shows the state corresponding to the reverse select operation position of FIG. . It is a figure for demonstrating the reset mechanism which returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. 1, and is the schematic which shows the state corresponding to the Low operation position of FIG. It is a front view for demonstrating the action | operation at the time of cable adjustment of the positioning mechanism of FIG. FIG. 6B is a side view of a partial cross section during cable adjustment of the positioning mechanism of FIG. 6A. It is a front view for demonstrating the action | operation at the time of the cable adjustment completion of the positioning mechanism of FIG. FIG. 7B is a partial cross-sectional side view of the positioning mechanism of FIG. 7A when cable adjustment is completed. It is a figure for demonstrating return of the select outer lever (outer lever) and the shift and select lever (select lever) after the cable adjustment of the positioning mechanism of FIG. 3 is completed. It is the schematic for demonstrating the guide position of selection operation of the shift and select lever (select lever) by a shift and select gate (gate) concerning the 1st modification of one Embodiment of the cable adjustment apparatus by this invention. It is a figure for demonstrating the return mechanism which concerns on the 1st modification of one Embodiment of the cable adjustment apparatus by this invention, and returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. FIG. 10 is a schematic diagram showing a state corresponding to the neutral position in FIG. 9. It is a figure for demonstrating the return mechanism which concerns on the 1st modification of one Embodiment of the cable adjustment apparatus by this invention, and returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. FIG. 10 is a schematic diagram showing a state corresponding to the seventh speed select operation position in FIG. 9. It is a figure for demonstrating the return mechanism which concerns on the 1st modification of one Embodiment of the cable adjustment apparatus by this invention, and returns the shift and select lever (select lever) and select outer lever (outer lever) of FIG. FIG. 10 is a schematic diagram showing a state corresponding to the High operation position in FIG. 9. It is sectional drawing for demonstrating the positioning mechanism which concerns on the 2nd modification of one Embodiment of the cable adjustment apparatus by this invention. It is sectional drawing for demonstrating the positioning mechanism which concerns on the other modification of one Embodiment of the cable adjustment apparatus by this invention and extended the base end part of the pin. It is sectional drawing for demonstrating the positioning mechanism which concerns on the other modification of one Embodiment of the cable adjustment apparatus by this invention and formed the holding part in the pin. It is sectional drawing for demonstrating the positioning mechanism which concerns on the other modification of one Embodiment of the cable adjustment apparatus by this invention, and shortened the length of the boss | hub. It is a perspective view for demonstrating the case where a select outer lever moves directly concerning the other modification of one Embodiment of the cable adjustment apparatus by this invention.

  Hereinafter, a cable adjustment device (hereinafter simply referred to as “this device”) for a manual transmission according to an embodiment of the present invention will be described with reference to the drawings. In the present embodiment, this device is applied to a manual transmission T having six forward speeds (forward speed) and one reverse speed (reverse speed).

  As shown in FIG. 1, the manual transmission T includes a shift and select lever 1 (hereinafter referred to as “select lever 1”). A knob 11 that is gripped by a driver or an operator is provided on the distal end side of the select lever 1. The base end side of the select lever 1 is connected to a shift and select gate 2 (hereinafter referred to as “gate 2”). As shown in FIG. 2, the gate 2 guides the shift operation of the select lever 1 in the shift operation direction Si and guides the select operation of the select lever 1 in the select operation direction Se.

  In the gate 2, in the select operation direction Se, the first speed-2nd speed select operation position (Low operation position) P1, the third speed-4th speed select operation position (neutral position) P2 (N), the fifth speed-6th speed select operation A position (High operation position) P3 and a reverse select operation position P4 for selecting a reverse gear are arranged in a line. As described above, the gate 2 in the present embodiment has the select operation positions P1, P2 around the 3rd-4th speed select operation position P2 (N) which is the neutral position of the select lever 1 in the select operation direction Se. And the selection lever 1 is guided to P4. That is, the gate 2 guides the select operation on the select lever 1 to four select operation positions.

  A pull collar mechanism (reverse operation mechanism) is provided between the select lever 1 and the gate 2. This pull color mechanism is intended to prevent an inadvertent selection operation to the reverse selection operation position. As shown in FIG. 1, the pull collar mechanism includes a pull collar 12 that is a pulling operation member provided below the knob 11 of the select lever 1, a stopper member 13 provided at the lower end of the select lever 1, and a gate. 2 and the restricting member 14 provided in 2. In the pull collar mechanism, when the select lever 1 is selected to the reverse select operation position, the driver or the operator pulls up the pull collar 12 to release the contact between the stopper member 13 and the regulating member 14. As a result, the driver or the operator can select the reverse select operation position. That is, when the driver or the operator does not pull up the pull collar 12, the select lever 1 cannot be selected to the reverse select operation position.

  In addition to the pull collar mechanism, a push lever mechanism that pushes down the select lever 1 in the direction of the gate 2 when the select lever 1 is selected to the reverse select operation position can be employed as the reverse operation mechanism. Furthermore, as the reverse operation mechanism, a heavy select having a large operation force when performing a select operation at the reverse select operation position can be employed.

  A select cable 3 and a shift cable 4 are connected to the gate 2. Here, the select cable 3 and the shift cable 4 are connected to the select lever 1 via a link mechanism (not shown) provided in the gate 2.

  The select cable 3 as a transmission cable is connected to a select outer lever 31 (hereinafter also simply referred to as “outer lever 31”). As a result, the operation force input along with the select operation of the select lever 1 is transmitted to the select outer lever 31 via the select cable 3. The select outer lever 31 is rotatably assembled to the outside of the case 5 constituting the manual transmission T. The select outer lever 31 is interlocked with the select operation of the select lever 1 and rotates about the shaft 32 when an operation force accompanying the select operation is transmitted. As shown in FIG. 3, the select outer lever 31 is formed with a hook-shaped engaging portion 31 a that engages with a pin 63 of the positioning mechanism 6 described later.

  The shift cable 4 is coupled to a shift outer lever 41 as shown in FIG. Thereby, the operation force input with the shift operation of the select lever 1 is transmitted to the shift outer lever 41 via the shift cable 4. The shift outer lever 41 is rotatably assembled to the outside of the case 5. The shift outer lever 41 is interlocked with the shift operation of the select lever 1 and is rotated about the shaft 42 when an operation force accompanying the shift operation is transmitted.

  The case 5 contains a transmission mechanism 51 and a shift-and-select shaft 52 (hereinafter also referred to as “select shaft 52”) indicated by phantom lines in FIG. The structure and operation of the speed change mechanism 51 and the shift and select shaft 52 are not directly related to the present invention and will be briefly described below. For a detailed description of the structure and operation of the speed change mechanism 51 and the shift and select shaft 52, reference can be made to, for example, paragraphs 0027 to 0046 of JP-A-2009-79601.

  The shift and select shaft 52 is provided in the case 5 so as to be rotatable about an axis and displaceable in the axial direction. The shift and select shaft 52 is connected to the select outer lever 31 and the shift outer lever 41 via a link mechanism (not shown). Thereby, when the operation force accompanying the selection operation is transmitted to the select outer lever 31, the select outer lever 31 rotates around the rotation shaft 32 on the outer surface of the case 5, and the operation force is shifted and selected. 52. When the operation force accompanying the shift operation is transmitted to the shift outer lever 41, the shift outer lever 41 rotates around the rotation shaft 42 on the outer surface of the case 5, and the operation force is shifted to the shift and select shaft 52. To communicate. When the operating force is transmitted from the select outer lever 31 and the shift outer lever 41, the shift and select shaft 52 rotates around the axis and is displaced in the axial direction by these operating forces. Thereby, the shift and select shaft 52 selectively moves one of a plurality of shift fork shafts (not shown). The shift fork that selectively moves places the gear pair constituting the speed change mechanism 51 in a power transmission state so as to correspond to the select position and shift position of the select lever 1.

  By the way, as described above, the operation force corresponding to the select operation of the select lever 1 is transmitted to the select outer lever 31 via the select cable 3, and the select outer lever 31 rotates in conjunction with the select lever 1. The operating force is transmitted to the shift and select shaft 52. Further, the operating force corresponding to the shift operation of the select lever 1 is transmitted to the shift outer lever 41 via the shift cable 4, and the shift outer lever 41 rotates in conjunction with the select lever 1 to shift the operation force. This is transmitted to the select shaft 52.

  For this reason, in order to appropriately transmit the select operation and shift operation of the select lever 1 to the shift and select shaft 52 so that the gear pair intended by the driver is in a power transmission state, the select cable 3 and the shift cable 4 are predetermined. Need to be connected to the select lever 1 with a length (predetermined tension). More specifically, the length (tension) of the select cable 3 must be adjusted so that the rotation position of the select outer lever 31 matches the select operation position of the select lever 1. If necessary, the length (tension) of the shift cable 4 must be adjusted so that the rotational position of the shift outer lever 41 matches the shift operation position of the select lever 1.

  In addition, the rotational position of the select outer lever 31 must be appropriately matched with the select operation position of the select lever 1. Further, the rotational position of the shift outer lever 41 must be appropriately matched with the shift operation position of the select lever 1.

  Here, the shift operation position of the select lever 1 and the rotation position of the shift outer lever 41 corresponding to the shift operation position are all determined mechanically by contact between members in the speed change mechanism 51. Therefore, for example, if the length (tension) of the shift cable 4 is adjusted in a state where the select lever 1 is in the neutral position P2 (N), the shift positions of the first lever to the sixth gear and the reverse gear in the select lever 1 are adjusted. And the rotational position of the shift outer lever 41 corresponding to each of these shift positions can all be matched.

  On the other hand, the select operation position of the select lever 1 and the rotation position of the select outer lever 31 corresponding to the select operation position may not be mechanically determined on the transmission mechanism 51 side. In the present embodiment, as will be described later, among the four select operation positions in the gate 2, the Low operation position P1 located between the neutral position P2 (N) and the reverse select operation position P4 (intermediate) corresponds. . That is, the Low operation position P1 corresponds to the adjustment operation position of the select lever 1. Accordingly, since the select outer lever 31 is connected to the select lever 1 via the select cable 3, a rotation position (a rotation position described later) corresponding to the Low operation position P1 among the rotation positions of the select outer lever 31. A1) corresponds to a position that cannot be mechanically determined. The Low operation position P1 is a forward operation select operation position adjacent to the reverse select operation position P4 in the neutral position P2 (N) direction.

  For this reason, the select cable 3 requires adjustment work for adjusting the length (tension) in order to make the Low operation position P1 and the rotation position of the select outer lever 31 coincide. In order to make this adjustment work possible, the case 5 is provided with a positioning mechanism 6 constituting a cable adjustment device. Hereinafter, the positioning mechanism 6 will be described in detail.

  As shown in FIG. 3, the positioning mechanism 6 in the present embodiment is provided on a base 61 that forms a part of the case 5 so as to position the rotation of the outer lever 31. The positioning mechanism 6 includes a boss 62 that is fixed to the base 61. As shown in detail in FIG. 4, the boss 62 is formed to have a stepped inner peripheral surface, and includes a large-diameter side inner peripheral surface 62a and a small-diameter side inner peripheral surface 62b. Yes. The boss 62 accommodates the pin 63 so as to move in the axial direction of the boss 62.

  The pin 63 moves in the axial direction at a rotation position of the select outer lever 31 corresponding to the Low operation position P1, that is, a position where the select outer lever 31 is held (positioned) at a predetermined adjustment position. The pin 63 includes a proximal end portion 63a and a distal end portion 63b that are formed so as to match the inner peripheral surface 62a and the inner peripheral surface 62b of the boss 62. The outer diameter of the base end portion 63 a is larger than the outer diameter of the distal end portion 63 b so as to slide relative to the inner peripheral surface 62 a on the larger diameter side of the boss 62. The outer diameter of the distal end portion 63 b is smaller than that of the proximal end portion 63 a so as to slide with respect to the inner peripheral surface 62 b on the smaller diameter side of the boss 62. Thus, by matching the outer diameters of the base end portion 63 a and the tip end portion 63 b with the inner peripheral surfaces 62 a and 62 b of the boss 62, the pin 63 is supported at two points by the inner periphery of the boss 62. As a result, the pin 63 can move in the axial direction of the boss 62 without causing an inclination.

  A spring 64 as an urging member is provided between the inner peripheral surface 62 a of the boss 62 and the base end portion 63 a of the pin 63. The spring 64 biases the base end portion 63a of the pin 63 in a direction away from the inner peripheral surface 62b in the axial direction of the boss 62, that is, in a direction away from the distal end portion 63b of the pin 63 from the select outer lever 31. Yes. Here, the magnitude of the urging force of the spring 64 is such that the pin 63 is accommodated in the accommodation position where the pin 63 is accommodated in the boss 62 due to, for example, vertical and horizontal vibrations and accelerations generated as the vehicle travels. The biasing force is set so as not to protrude from the position.

  A snap ring 65 as a pin holding member is fixed to the tip end side 63b of the pin 63 so that it cannot be removed. The snap ring 65 is, for example, an engagement position where the pin 63 is pulled out (advanced) in the axial direction against the urging force of the spring 64 and engaged with the engagement portion 31 a formed on the outer lever 31. Thus, the outer lever 31 comes into contact with the surface around the engaging portion 31a. Therefore, the outer diameter of the portion where the snap ring 65 contacts the surface of the outer lever 31 (that is, the contact surface) is larger than the inner diameter of the inner peripheral surface forming the engaging portion 31a. In this case, for example, a washer may be employed instead of the snap ring 65.

  Further, the manual transmission T is provided with a return mechanism 7 for returning the select lever 1 to the neutral position P2 (N). As shown in FIGS. 5A, 5B, 5C, and 5D, the return mechanism 7 in the present embodiment is provided on the back side of the base 61 that supports the outer lever 31 and the positioning mechanism 6 (that is, the inner side of the case 5). Is provided. The return mechanism 7 includes a cylindrical member 71 connected to a shaft 32 that rotatably supports the outer lever 31. The cylindrical member 71 is connected to the shaft 32 at one end side, and the other end side is open. The cylindrical member 71 is integrally connected to the shaft 32 so that the axial direction thereof coincides with the longitudinal direction of the outer lever 31. As a result, the outer lever 31 and the cylindrical member 71 do not rotate relative to the shaft 32, and accordingly, the outer lever 31 and the cylindrical member 71 do not rotate relative to each other. On the opening side of the cylindrical member 71, the ball 72 is supported so as to be rotatable and displaceable in the axial direction of the cylindrical member 71. The ball 72 is urged toward the opening side of the cylindrical member 71 by a spring 73 accommodated in the cylindrical member 71.

  The ball 72 comes into contact with a cam 74 formed on the base 61. The cam 74 is formed in a valley shape (mountain shape). Thus, the ball 72 urged by the spring 73 moves toward the lowest point (uppermost point) of the cam 74 by the urging force. Therefore, the outer lever 31 integrally connected via the cylindrical member 71 that holds the ball 72, that is, the shaft 32, is always urged toward the lowest point (uppermost point) of the cam 74.

  Here, the lowermost point (uppermost point) of the cam 74 corresponds to the neutral position P2 (N) of the select lever 1. Accordingly, the outer lever 31 is biased toward the neutral displacement position corresponding to the neutral position P2 (N) of the select lever 1. As a result, the outer lever 31 is always urged toward the neutral displacement position, so that the select lever 1 connected via the select cable 3 is always urged toward the neutral position P2 (N). . In other words, since the select lever 1 and the outer lever 31 are interlocked by being connected by the select cable 3, when the select lever 1 returns to the neutral position P2 (N), the outer lever 31 is also in the neutral displacement position. It is designed to turn back to return.

  Next, the operation of the positioning mechanism 6 configured as described above will be described. First, the case where the positioning mechanism 6 positions the outer lever 31 at a predetermined adjustment position will be described.

  In the present embodiment, the adjustment operation position of the select lever 1 is the Low operation position P1 adjacent to the reverse select operation position P4 in the select lever neutral position P2 (N) direction, as shown in FIG. . That is, the Low operation position P1 is regulated by the pull collar mechanism that is the reverse operation mechanism when the select lever 1 is selected to the reverse select operation position P4 in the select operation direction Se in the gate 2. That is, the select operation position of the Low operation position P1 is determined by the vehicle side.

  On the other hand, as shown in FIG. 5A, the rotational position A <b> 2 (N) of the cylindrical member 71 is mechanically determined by stopping at the lowest point (highest point) of the cam 74. Accordingly, the outer lever 31 integrally connected to the cylindrical member 71 by the shaft 32 also stops at the rotation position A2 (N), so that the select lever 1 connected by the select cable 3 is moved to the select lever neutral position P2 (N). And stop. Accordingly, the neutral position P2 (N) of the select lever 1 is determined on the outer lever 31 side (so-called transmission side). Here, the rotation position A <b> 2 (N) where the outer lever 31 connected by the shaft 32 stops corresponds to the neutral displacement position of the outer lever 31. Therefore, in the following description, the neutral displacement position is referred to as a neutral displacement position A2 (N).

  5B, the rotational position A3 of the cylindrical member 71 is mechanically determined by the cylindrical member 71 coming into contact with the base 61. As a result, the outer lever 31 integrally connected by the shaft 32 also stops at the rotation position A3, so that the select lever 1 connected by the select cable 3 stops at the high operation position P3. Accordingly, the high operation position P3 is also determined on the outer lever 31 side (so-called transmission side). Note that the urging force of the spring 73 and the cam 74 acts on the cylindrical member 71 so that the ball 72 moves in the direction indicated by the arrow in FIG. 5B.

  Further, as shown in FIG. 5C, the rotational position A4 of the cylindrical member 71 is mechanically determined by the cylindrical member 71 coming into contact with the base 61. As a result, the outer lever 31 integrally connected by the shaft 32 also stops at the rotation position A4, so that the select lever 1 connected by the select cable 3 stops at the reverse select operation position P4. Accordingly, the reverse select operation position P4 is also determined on the outer lever 31 side (so-called transmission side). Note that the urging force of the spring 73 and the cam 74 acts on the cylindrical member 71 so that the ball 72 moves in the direction indicated by the arrow in FIG. 5C.

  However, as shown in FIG. 5D, the rotation position A1 of the cylindrical member 71 is such that the ball 72 does not reach the lowest point (uppermost point) of the cam 74 and the cylindrical member 71 is in contact with the base 61. Absent. Accordingly, the rotation position A1 of the cylindrical member 71 is stationary in a state where the ball 72 is urged to move in the direction of the lowest point (uppermost point) of the cam 74, as indicated by an arrow in FIG. 5D. Not mechanically determined. As a result, the outer lever 31 integrally connected by the shaft 32 is also urged in the direction of the neutral displacement position A2 (N) by the urging force by the return mechanism 7, that is, in the rotation position A1, and does not stop. For this reason, also in the select lever 1 connected by the select cable 3, the Low operation position P1 corresponding to the rotation position A1 is not mechanically determined by the outer lever 31 side (so-called transmission side).

  Therefore, the positioning mechanism 6 positions the outer lever 31 at the rotation position A1 corresponding to the Low operation position P1 determined on the vehicle side. Then, the operator connects the select lever 1 in a state of being selected to the Low operation position P1 and the outer lever 31 positioned at the rotation position A1 by the positioning mechanism 6 via the select cable 3, and selects the select cable. Adjust the 3 length (tension). As a result, the Low operation position P1 of the select lever 1 and the rotation position A1 of the outer lever 31 exactly coincide. For this reason, when the select lever 1 is selected to the Low operation position P1, the outer lever 31 is interlocked and accurately rotates to the rotation position A1, and the operation force is transmitted to the select shaft 52 to be accurately operated. be able to.

  Therefore, in the positioning mechanism 6 of the present embodiment, the predetermined adjustment position is set as the rotation position A1. For this reason, the pin 63 moves in the axial direction at a position where the outer lever 31 is held (positioned) at the rotation position A1. In the present embodiment, the pin 63 moves in the axial direction at a position adjacent to the neutral displacement position A2 (N) direction from the rotation position A1 of the outer lever 31.

  When the length of the select cable 3 is adjusted, the pin 63 is advanced to the engagement position against the urging force of the spring 64 as shown in FIGS. 6A and 6B. As a result, as shown in FIG. 6B, the pin 63 advanced to the engaging position is moved to the engaging portion 31a of the outer lever 31 being urged in the neutral displacement position A2 (N) direction together with the snap ring 65. Engage. As a result, as shown in FIG. 6A, the outer lever 31 is positioned at the rotation position A1 and stops. At this time, the urging force (so-called detent force) by the return mechanism 7 is acting on the outer lever 31 in the direction indicated by the arrow D in FIG. 6A.

  At this time, as indicated by an arrow U in FIG. 6B, the pin 63 is urged toward the accommodation position by the spring 64, so that the snap ring 65 fixed to the distal end portion 63 b is also in the accommodation position direction of the pin 63. It is energized towards. Accordingly, the contact surface of the snap ring 65 strongly presses the surface around the engaging portion 31 a of the outer lever 31. Accordingly, a frictional force is generated on the contact surface, so that the snap ring 65 is prevented from being displaced with respect to the outer lever 31 to release the engagement state between the pin 63 and the outer lever 31. For this reason, the outer lever 31 continues to be satisfactorily positioned at the rotation position A1.

  In this engaged state, the outer peripheral surface of the pin 63 and the engaging portion 31a of the outer lever 31 are in contact with each other without a gap by the biasing force applied to the outer lever 31 by the return mechanism 7. Further, since the pin 63 is supported without being inclined by the inner periphery of the boss 62, the pin 63 accurately advances along the axial direction of the boss 62. Accordingly, the positioning mechanism 6 can position the outer lever 31 at the rotational position A1 with extremely high accuracy.

  In this engaged state, the operator adjusts the length (tension) of the select cable 3 so that it becomes an appropriate length (tension). As a result, the select lever 1 that has been selected to the Low operation position P1 and the outer lever 31 that rotates to the rotation position A1 are linked very accurately via the select cable 3. When such a length adjustment operation of the select cable 3 is completed, the operator operates the pull collar mechanism and performs a reverse select operation. That is, the operator selects the select lever 1 from the Low operation position P1 to the reverse select operation position P4 that is a predetermined select operation position. Here, the reverse select operation position P4 is a select operation in a direction away from the neutral position P2 (N).

  When the operator selects the select lever 1 to the reverse select operation position P4, as shown in FIG. 7A, the outer lever 31 connected by the select cable 3 corresponds to the reverse select operation position P4 with the shaft 32 as the center. It turns toward the turning position A4 (that is, toward the direction away from the neutral displacement position A2 (N)). That is, the outer lever 31 rotates in the direction of the arrow Se (matching the select operation direction Se of the select lever 1) shown in FIG. 7A. At this time, since the rotation position A1 is located between the rotation position A4 and the neutral displacement position A2 (N), the outer lever 31 rotates against the biasing force applied from the return mechanism 7. Rotate to position A4.

  When the outer lever 31 rotates to the rotation position A4, as shown in FIG. 7B, the engagement state between the pin 63 and the snap ring 65 and the engagement portion 31a is released. When the engaged state is released, the pin 63 and the snap ring 65 move from the engaged position to the accommodated position. Then, the pin 63 is accommodated in the boss 62. Thus, the pin 63 and the snap ring 65 do not contact the outer lever 31 in a state where the pin 63 has moved to the accommodation position. Thereby, the outer lever 31 can be rotated around the shaft 32 completely freely.

  When the operator releases the select lever 1 after selecting the select lever 1 to the reverse select operation position P4, as shown in FIG. 8, the outer lever 31 has a neutral displacement position A2 with the shaft 32 as the center. It turns (returns) toward (N). In conjunction with the rotation of the outer lever 31 to the neutral displacement position A2 (N), the select lever 1 returns toward the neutral position P2 (N). As described above, when the select lever 1 is returned to the neutral position P2 (N), it can be confirmed that the pin 63 is surely moved to the accommodation position, and the length (tension) of the select cable 3 is adjusted. The work is finished.

  As can be understood from the above description, the apparatus according to the present embodiment has a select lever 1 that is selected by the driver during a shift operation, and the operation position of the select operation by the select lever 1 is set to four or more operation positions. A gate 2 for guiding, a case 5 that houses the speed change mechanism 51, a select shaft 52 that is provided inside the case 5 and causes the speed change mechanism 51 to change speed according to a select operation by the select lever 1, and outside the case 5 It is provided, is connected to the select shaft 52, is connected to the select lever 1 so that the operating force input to the select lever 1 is transmitted via the transmission cable 3, and the transmitted operating force is transmitted. The outer lever 31 that rotates to transmit the operating force to the select shaft 52 and the select lever 1 to the gate 2 And a return mechanism 7 that returns to the neutral position P2 (N) in the select operation direction Se. The outer lever 31 is displaced in conjunction with the select operation on the select lever 1, and the select lever 1 is returned to the return mechanism 7. Applied to the manual transmission T configured to be displaced to the neutral displacement position A2 (N) corresponding to the neutral position P2 (N) in conjunction with the return to the neutral position P2 (N). Unlike the neutral position P2 (N) of the select lever 1, the cable adjusting device of the manual transmission that adjusts the cable 3 corresponds to the adjustment operation position P1 of the select lever 1 that adjusts the select operation position of the select lever 1. A positioning mechanism 6 for positioning the outer lever 31 at a predetermined adjustment position A1 for adjusting the speed change cable 3; The bar 31 is provided at a position where the bar 31 is positioned at the predetermined adjustment position A1 and is movable in the axial direction. According to the engagement portion 31a formed on the outer surface of the outer lever 31, and the movement in the axial direction, A pin 63 that is selectively engaged with or released from the engaging portion 31a, a cylindrical boss 62 that is formed on the outer surface of the case 5 and movably accommodates the pin 63, and a pin The pin 63 is disposed between the boss 62 and moved from the engagement position where the pin 63 engages with the engagement portion 31 a to the accommodation position where the engagement with the engagement portion 31 a is released and accommodated in the boss 62. The spring 64 that biases the pin 63 and the pin 63 that is provided at the tip 63b of the pin 63 and engages with the engaging portion 31a is held in the engaged position against the biasing force of the spring 64. A snap ring 65, and the gate 2 When the select lever 1 is selected to a predetermined select operation position P4 in a direction away from the neutral position P2 (N) of the select lever 1 and the outer lever 31 is displaced in a direction away from the neutral displacement position A2 (N). The holding of the pin 63 at the position of engagement with the pin 63 is released.

  In this case, the manual transmission T has a reverse operation mechanism (12, 13) that is operated when the select lever 1 performs a select operation to the reverse select operation position P4 where the reverse gear is selected in the select operation direction Se. 14), and the adjustment operation position P1 of the select lever 1 moves forward in the select operation direction Se of the select lever 1 in the gate 2 from the reverse select operation position P4 adjacent to the neutral position P2 (N) direction. The selection operation position at which the stage is selected, and the predetermined selection operation position can be set to the reverse selection operation position P4 in the gate 2.

  According to these, in the positioning mechanism 6, the pin 63 and the snap ring 65 are engaged with the engaging portion 31 a formed on the outer lever 31 at the engaging position where the pin 63 is moved in the axial direction from the boss 62. If it is, the outer lever 31 can be positioned at the rotation position A1 that is a predetermined adjustment position. Thus, when the manual transmission T is mounted on the vehicle, the Low operation position P1 that is the adjustment operation position of the select lever 1 and the rotation position A1 that is the predetermined adjustment position of the outer lever 31 are made to correspond to each other. It can be. In this state, the operator can connect the select lever 1 and the outer lever 31 via the select cable 3.

  Further, since the outer lever 31 connected to the select lever 1 via the select cable 3 is biased in the neutral displacement position A2 (N) direction, the engaging portion 31a between the pin 63 and the outer lever 31 is placed. It can contact | abut without producing a clearance gap between. Therefore, in the adjustment work in which the operator adjusts the length (tension) of the select cable 3, the positioning mechanism 6 can position the outer lever 31 at the rotational position A1 very accurately.

  In addition, after the adjustment work, the operator selects the pin 63 and the snap ring 65 and the engaging portion 31a of the outer lever 31 only by selecting the select lever 1 to the reverse select operation position P4 in the vehicle interior. Can be released. Therefore, it is not necessary to dig into the lower part of the vehicle to release the positioning of the outer lever 31, and the positioning of the outer lever 31 by the pin 63 can be released by an extremely easy operation. Thereby, workability | operativity of the adjustment work by an operator can be improved significantly. Furthermore, the pin 63 and the snap ring 65 do not contact the outer lever 31 after moving to the accommodation position. Therefore, the select lever 1 can be freely operated after the adjustment work.

  Further, since the predetermined select operation position can be set to the reverse select operation position P4, after the adjustment work is completed, the operator selects the select lever 1 to the reverse select operation position P4 to thereby perform the pin 63 and the snap ring. 65 and the outer lever 31 engaging portion 31a can be disengaged. Therefore, the workability of the adjustment work can be greatly improved. In addition, by specifying the adjustment operation position (Low operation position P1) and the predetermined select operation position (reverse select operation position P4) in this way, it is possible to standardize the work without distinguishing the vehicle type.

  In addition, it is preferable that the select operation position of the select lever 1 in the manual transmission T is determined not on the vehicle side but on the transmission side from the viewpoint of ensuring good select operability. On the other hand, the Low operation position P1 of the select lever 1 may not be determined by mechanical contact on the outer lever 31 side. In such a case, for example, even if the manual transmission does not include a reverse operation mechanism, if the Low operation position P1 can be determined on the vehicle side by some method, the outer lever corresponding to the Low operation position P1 is used. By positioning 31 at the rotational position A1, the length of the select cable 3 can be adjusted as described above. Thereby, the correspondence between the Low operation position P1 and the rotation position A1 of the outer lever 31 can be appropriately determined. After the adjustment work, the select lever 1 is selected to the reverse select operation position P4 to release the engagement between the pin 63 and the snap ring 65 and the engaging portion 31a of the outer lever 31. . Therefore, even in this case, the workability of the adjustment work can be greatly improved.

  In these cases, in the pin 63, the outer diameter of the base end portion 63a can be made larger than the outer diameter of the distal end portion 63b.

  For example, when the manual transmission T is repaired and the transmission T is removed from the vehicle (removed) and reassembled, the length of the select cable 3 needs to be adjusted again. As described above, in the positioning mechanism 6, after the adjustment work, the pin 63 and the snap ring 65 move to the accommodation position. That is, the pin 63 and the snap ring 65 are accommodated in the boss 62 without being removed after the adjustment work. Thereby, the positioning mechanism 6 can be reused also in the adjustment work of the length of the select cable 3 when the manual transmission T is assembled again.

  By the way, although the pin 63 is accommodated in the boss 62, there is a concern that the pin 63 cannot be pulled out to the engagement position at the time of reuse due to the influence of foreign matters such as sand entering the boss 62. Therefore, by increasing the outer diameter of the base end portion 63a, the gap with the inner peripheral surface of the boss 62 is reduced, and foreign matter or the like is prevented from entering when the pin 63 is housed in the boss 62. be able to. Thus, by preventing the entry of foreign matter or the like, the positioning mechanism can be reliably operated when necessary, so that the workability of the length adjustment work of the select cable 3 can be improved.

<First Modification of the Embodiment>
In the above embodiment, the gate 2 is guided to the four select operation positions as the select operation position of the select lever 1. On the other hand, it is also possible to carry out the guide operation to the five select operation positions as the select operation position of the select lever 1. Hereinafter, although this 1st modification is demonstrated, the same code | symbol is attached | subjected to the same part as the said embodiment, and the description is abbreviate | omitted. In the first modification, the present apparatus is applied to a manual transmission having seven forward speeds (forward speed) and one reverse speed (reverse speed).

  The gate 21 in this first modification guides the select lever 1 to five select operation positions as shown in FIG. As compared with the case of the gate 2, the seventh speed select operation position P <b> 5 is added to the gate 21. Thus, in the gate 21, in the select operation direction Se, the first speed-2nd gear select operation position (Low operation position) P1, the third speed-4th speed select operation position (neutral position) P2 (N), and the fifth speed-6. A fast select operation position (High operation position) P3, a reverse select operation position P4, and a seventh speed select operation position P5 are arranged in a line. Accordingly, the gate 21 in the first modification example has the select operation positions P1, P2 centered on the 3rd-4th speed select operation position P2 (N) which is the neutral position of the select lever 1 in the select operation direction Se. , P4 and P5, the select lever 1 is guided. That is, the gate 21 guides the select operation on the select lever 1 to five select operation positions.

  In the first modified example, the Low operation position P1 can be set as the specific selection operation position, and the High operation position P3 can be set as the adjustment operation position of the select lever 1, as in the above embodiment. However, unlike the Low operation position P1, the High operation position P3 is mechanically determined, for example, by increasing the operation force required during the selection operation to the seventh gear. Needless to say, even if such a mechanism is not provided, any method may be employed as long as the High operation position P3 can be determined on the vehicle side.

  Also in this first modified example, as shown in FIG. 10A, the rotational position A2 (N) of the cylindrical member 71 is mechanically determined by stopping at the lowest point (highest point) of the cam 74. Is done. In the first modification, as shown in FIG. 10B, the rotational position A5 of the cylindrical member 71 is mechanically determined by the cylindrical member 71 coming into contact with the base 61. As a result, the outer lever 31 integrally connected by the shaft 32 also stops at the rotation position A5, so that the select lever 1 connected by the select cable 3 stops at the seventh speed select operation position P5. Accordingly, the seventh speed select operation position P5 is determined on the outer lever 31 side (so-called transmission side). Note that the urging force of the spring 73 and the cam 74 acts on the cylindrical member 71 so that the ball 72 moves in the direction indicated by the arrow in FIG. 10B.

  On the other hand, as shown in FIG. 10C, the rotation position A3 of the cylindrical member 71 is such that the ball 72 does not reach the lowest point (uppermost point) of the cam 74 and the cylindrical member 71 moves to the base 61. There is no contact. Accordingly, the rotation position A3 of the cylindrical member 71 is stationary in a state where the ball 72 is urged to move in the direction of the lowest point (uppermost point) of the cam 74, as indicated by an arrow in FIG. 10C. Not mechanically determined. As a result, the outer lever 31 integrally connected by the shaft 32 is also urged in the direction of the neutral displacement position A2 (N) by the urging force by the return mechanism at the rotation position A3, that is, does not stop. For this reason, even in the select lever 1 connected by the select cable 3, the high operation position P <b> 3 is not mechanically determined by the outer lever 31.

  Therefore, in this first modification, the predetermined adjustment position is set as the rotation position A3. Then, as in the case where the predetermined adjustment position is set to the rotation position A1 in the above embodiment, the outer lever 31 is moved at the rotation position A3 corresponding to the High operation position P3 determined by the positioning mechanism 6 on the vehicle side. Position it. Then, the length (tension) of the select cable 3 that connects the select lever 1 in a state where the operator has been selected to the high operation position P3 and the outer lever 31 positioned at the rotation position A3 by the positioning mechanism 6 is set. adjust. Thereby, the High operation position P3 of the select lever 1 and the rotation position A3 of the outer lever 31 exactly coincide. Therefore, when the select operation is performed at the high operation position P3, the outer lever 31 can be accurately rotated to the rotation position A3, and the operation force can be transmitted to the select shaft 52 to be accurately operated.

  When the length adjustment operation of the select cable 3 is completed, the operator performs a select operation of the select lever 1 to the seventh speed select operation position P5. That is, the operator selects the select lever 1 from the high position P3 to the seventh speed select operation position P5 that is a predetermined select operation position. Here, the seventh speed select operation position P5 is a select operation position in a direction away from the neutral position P2 (N).

  When the operator selects the select lever 1 to the 7-speed select operation position P5, the outer lever 31 connected by the select cable 3 moves to the rotation position A5 corresponding to the 7-speed select operation position P5 around the shaft 32. It is rotated toward (that is, in a direction away from the neutral displacement position A2 (N)). At this time, the rotation position A3 is located between the rotation position A5 and the neutral displacement position A2 (N), so that the outer lever 31 is rotated against the biasing force applied from the return mechanism. Rotate to A5.

  When the outer lever 31 rotates to the rotation position A5, the engagement state between the pin 63 and the snap ring 65 and the engagement portion 31a is released. When the engaged state is released, the pin 63 and the snap ring 65 move from the engaged position to the accommodated position. Then, the pin 63 is accommodated in the boss 62. Thus, the pin 63 and the snap ring 65 do not contact the outer lever 31 in a state where the pin 63 has moved to the accommodation position. Thereby, the outer lever 31 can be rotated around the shaft 32 completely freely.

  When the operator releases the select lever 1 after selecting the select lever 1 to the 7-speed select operation position P5, the outer lever 31 rotates about the shaft 32 toward the neutral displacement position A2 (N). Move (return). In conjunction with the rotation of the outer lever 31 to the neutral displacement position A2 (N), the select lever 1 returns toward the neutral position P2 (N). As described above, when the select lever 1 is returned to the neutral position P2 (N), it can be confirmed that the pin 63 is surely moved to the accommodation position, and the length (tension) of the select cable 3 is adjusted. The work is finished.

  Therefore, also in this first modified example, the same effect as in the above embodiment can be obtained.

<Second Modification of the Embodiment>
In the embodiment and the first modification, the boss 62 of the positioning mechanism 6 is formed on the case 5 (base 61). The engaging portion 31 a is formed on the outer lever 31. Thereby, the pin 63 accommodated in the boss 62 which is the case-side boss is engaged with the engaging portion 31a.

  In this case, as shown in FIG. 11, the outer lever 31 can be formed with the boss 62, the pin 63 and the spring 64 can be accommodated in the boss 62, and the snap ring 65 can be provided at the tip 63 b of the pin 63. . Moreover, the engaging part 66 can be formed in the base 61 (case 5).

  In the second modified example configured as described above, the pin 63 and the snap ring 65 are engaged with the engaging portion 66. Thereby, like the case of the said embodiment and said 1st modification, the outer lever 31 can be accurately and reliably positioned to a predetermined adjustment position. When the select lever 1 is selected to a predetermined select operation position (for example, the reverse select operation position P4), the outer lever 31 rotates as in the case of the above embodiment and the first modification. Thereby, the engagement state of the pin 63 and the snap ring 65 and the engaging portion 66 is released. Therefore, also in this second modification, the same effects as those in the above embodiment and the first modification can be obtained.

<Other variations>
As described in the above embodiment, the pin 63 and the snap ring 65 are held at the retracted position with respect to the boss 62 after the adjustment work in which the length (tension) of the select cable 3 is adjusted by the operator. That is, the pin 63 and the snap ring 65 are not removed even after the adjustment work. Therefore, after the vehicle is assembled, for example, even when the manual transmission T is removed from the vehicle due to repair or the like, the pin 63 is pulled out from the boss 62 and the pin 63 is engaged with the outer lever 31 at the engagement position. By doing so, the length (tension) of the select cable 3 can be adjusted as in the assembly. In this case, workability can be further improved by allowing the operator to easily pull the pin 63 from the boss 62 to the engagement position.

  Therefore, when a protruding portion that protrudes from the case 5 is formed with respect to the base 61 and the operator can operate the base end portion 63a of the pin 63, as shown in FIG. The base end portion 63 a of the pin 63 may be formed so as to protrude from the end portion of the boss 62, that is, the lower surface side of the base 61 in the state where it is moved to the accommodation position. Thereby, when reusing the positioning mechanism 6, the operator can press the proximal end portion 63a of the pin 63 to project the distal end portion 63b. Therefore, the operator can easily pull out the pin 63 moving to the retracted position to the engaged position. In this case, since the length of the tip 63b of the pin 63 protruding from the tip of the boss 62 is not changed from the case of the above-described embodiment and each modification, the pin 63 is moved to the retracted position. The pin 63 does not engage with the engaging portion 31a of the outer lever 31 or the engaging portion 66 formed on the case 5 side.

  Accordingly, since the operator can reliably operate the positioning mechanism 6 when necessary, the workability of the length adjustment work of the select cable 3 can be improved.

  Further, in order to make it easy for the operator to pull out the tip 63b of the pin 63, the pin 63 has an outer diameter equivalent to that of the snap ring 65 on the tip 63b side of the pin 63 as shown in FIG. May be provided with a gripping portion 67 for moving to the engagement position. Thus, when the operator reuses the positioning mechanism 6, the operator grips the grip portion 67 provided at the tip portion 63b of the pin 63, and easily moves the pin 63 moving to the retracted position to the engagement position. It can be pulled out. In this case, the pin 63 has a length in the axial direction by forming the grip portion 67 on the tip side in the axial direction from the position where the snap ring 65 is fixed at the tip 63b of the pin 63. It is not changed from the case of a form and said each modification. Therefore, in a state where the pin 63 has moved to the retracted position, the pin 63 does not engage with the engaging portion 31a of the outer lever 31 or the engaging portion 66 formed on the case 5 side.

  Accordingly, since the operator can reliably operate the positioning mechanism 6 when necessary, the workability of the length adjustment work of the select cable 3 can be improved.

  Further, in order to make it easy to pull out the tip 63b of the pin 63, as shown in FIG. 14, the length of the boss 62 in the axial direction may be shortened and the exposed portion of the tip 63b of the pin 63 may be enlarged. . Thereby, when reusing the positioning mechanism 6, the operator can easily grasp the tip 63 b of the pin 63, and can easily pull out the pin 63 that has been moved to the retracted position to the engaged position. In addition, since only the axial length of the boss 62 is shortened without changing the axial length of the pin 63, the pin 63 is engaged with the outer lever 31 in a state where the pin 63 has moved to the retracted position. It does not engage with the engaging portion 66 formed on the portion 31a or the case 5 side. Even when the length of the boss 62 in the axial direction is shortened, the pin 63 is supported at two points by the inner peripheral surface of the boss 62 when the pin 63 moves to the engagement position. Accordingly, the pin 63 can accurately position the outer lever 31 at the adjustment position at the engagement position.

  The present invention is not limited to the above embodiment and each of the above modifications, and various modifications can be employed within the scope of the present invention.

  For example, in the above-described embodiment and each modification, it is assumed that the operator adjusts the length of the select cable 3 and the case where the positioning mechanism 6 positions the select outer lever 31 has been described. In this case, when adjusting the length of the shift cable 4, if necessary, the positioning mechanism 6 may be provided on the shift outer lever 41 side so that the shift outer lever 41 is positioned. . Even when the length of the shift cable 4 is adjusted as described above, the shift and select lever 1 can be shifted by performing the same operation as the positioning mechanism 6 for adjusting the length of the select cable 3 described above. The operation position and the rotation position of the shift outer lever 41 can be matched appropriately and accurately.

  Furthermore, in the said embodiment and each modification, the case where the outer lever 31 rotated centering on the shaft 32 was demonstrated. In this case, for example, as shown in FIG. 15, the outer lever 31 can be configured to move along the axial direction of the select shaft 52 in accordance with the assembled state of the select shaft 52. In this case, the outer lever 31 selects the operation force by moving along the axial direction of the select shaft 52 by the operation force transmitted via the select cable 3 according to the select operation of the select lever 1. It can be transmitted to the shaft 52. Even when the outer lever 31 moves along the axial direction of the select shaft 52, when determining the displacement position of the outer lever 31 corresponding to the Low operation position P 1 of the select lever 1, Similar to the modified example, the positioning mechanism 6 can position the outer lever 31 at a predetermined adjustment position. Accordingly, even in this case, the same effects as those of the above-described embodiment and each modification can be expected.

DESCRIPTION OF SYMBOLS 1 ... Shift and select lever (select lever), 11 ... Knob, 12 ... Pull collar, 13 ... Stopper member, 14 ... Restriction member, 2 ... Shift and select gate (gate), 3 ... Select cable (shift cable), 31 ... select outer lever (outer lever), 31a ... engaging portion, 32 ... shaft, 33 ... shift cable, 41 ... shift outer lever, 42 ... shaft, 5 ... case, 51 ... transmission mechanism, 52 ... shift and select shaft ( Select shaft), 6 ... Positioning mechanism, 61 ... Base, 62 ... Boss, 63 ... Pin, 63a ... Base end, 63b ... Tip, 64 ... Spring (biasing member), 65 ... Snap ring (pin holding member) , 66 ... engaging part, 67 ... gripping part, 7 ... return mechanism, 71 ... cylindrical member, 72 ... ball, 73 ... spring Grayed, 74 ... cam, T ... manual transmission

Claims (5)

A select lever that is operated by the driver during gear shifting,
A gate that guides the operation position of the select operation by the select lever to four or more operation positions;
A case housing the speed change mechanism;
A select shaft provided inside the case and causing the speed change mechanism to perform a speed change operation in response to a select operation by the select lever;
It is provided outside the case and is connected to the select shaft so that the operating force input to the select lever can be transmitted to the select lever via a transmission cable. An outer lever that rotates by the operated force or moves along the axial direction of the select shaft and transmits the operating force to the select shaft;
A return mechanism for returning the select lever to a neutral position in the select operation direction in the gate,
The outer lever is displaced in conjunction with a select operation on the select lever, and is displaced to a neutral displacement position corresponding to the neutral position in conjunction with the return of the select lever to the neutral position by the return mechanism. Applied to manual transmission, configured as
In the cable adjustment device for a manual transmission for adjusting the cable for shifting,
Unlike the neutral position of the select lever, the outer lever is placed at a predetermined adjustment position for adjusting the shift cable corresponding to the adjustment operation position of the select lever for adjusting the select operation position of the select lever. A positioning mechanism for positioning,
The outer lever is provided at a position where the outer lever is positioned at the predetermined adjustment position and is movable in the axial direction, and the engaging portion formed on the outer surface of the outer lever or the case and the movement in the axial direction. In response, a pin selectively engaged with or released from the engaging portion;
A cylindrical boss which is formed on the outer surface of the case or on the outer lever and movably accommodates the pin;
It is arranged between the pin and the boss, and moves from an engagement position where the pin engages with the engagement portion to an accommodation position where the engagement with the engagement portion is released and accommodated in the boss. A biasing member that biases the pin so as to
A pin holding member that is provided at the tip of the pin and holds the pin engaged with the engaging portion at the engagement position against the urging force of the urging member;
The engagement position when the select lever is selected to a predetermined select operation position in a direction away from the neutral position of the select lever in the gate and the outer lever is displaced in a direction away from the neutral displacement position. A cable adjusting device for a manual transmission configured to release the holding of the pin. The manual transmission is:
The select lever includes a reverse operation mechanism that is operated when performing a select operation to a reverse select operation position where a reverse gear is selected in the select operation direction;
The adjustment operation position of the select lever is
In the select operation direction of the select lever in the gate, a select operation position in which a forward gear is selected adjacent to the neutral position direction from the reverse select operation position,
The predetermined select operation position is:
The cable adjustment device for a manual transmission according to claim 1, wherein the gate is the reverse select operation position. The pin has a proximal end;
The cable adjustment device for a manual transmission according to claim 1 or 2, wherein an outer diameter of the base end portion is larger than an outer diameter of the distal end portion. The pin has a proximal end;
The cable adjustment of the manual transmission according to any one of claims 1 to 3, wherein the base end portion protrudes from an end portion of the boss in a state where the boss is moved to an accommodation position in the boss. apparatus. The pin is
The cable adjustment device for a manual transmission according to any one of claims 1 to 4, further comprising a grip portion for moving the pin to the engagement position on the distal end portion side.

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