JP2004068639A - Lock-type power accumulation starter - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a new lock-type power accumulation starter for starting an internal combustion engine by accumulating the rotational driving power on a power accumulation spring by pulling a recoil rope by a drawing handle, and then releasing the accumulated power at once through a start pulley. <P>SOLUTION: This lock-type power accumulation starter device wherein the power accumulation amount of the power accumulation spring is added up by every drawing-out operation of the recoil rope, and the accumulated power of the power accumulation spring is released at once through the start pulley at a time when the torque necessary for starting the engine is accumulated on the power accumulation spring during addition, to start the rotation of an engine, comprises a power accumulation adding-up mechanism part for adding up the accumulated power of the power accumulation spring by repeating the drawing-out operation of the recoil rope, an accumulated power releasing mechanism part for releasing the power accumulation spring at an instant when the accumulated power by addition becomes more than the torque necessary for starting the engine, and a returning mechanism part for returning to a condition before the start of the addition just after the releasing of the accumulated power of the power accumulation spring. <P>COPYRIGHT: (C)2004,JPO

Description

[0001]
TECHNICAL FIELD OF THE INVENTION
The present invention relates to a lock-type energy storage starter device having an energy storage spring, which can easily start an internal combustion engine even with a weak user. Specifically, a lock type storage device that starts the internal combustion engine by pulling a recoil rope by a pull handle to store rotational driving force in a storage spring and then releasing the storage force at once through a starting pulley to start the internal combustion engine. It relates to improvement of a starter device.
[0002]
[Prior art]
Heretofore, there has been known a power storage starter device in which the power is stopped by the compression force of the engine and the power is stored in a power storage spring. In the case of a power storage starter device utilizing the compression force of this engine, there is a problem that the amount of stored power of the spring increases when the recoil rope is pulled quickly, and the power tends not to be stored when the rope is pulled slowly.
[0003]
A lock-type energy storage starter device that has been devised to solve such a problem is also known, but this type of lock-type energy storage starter device stores energy by pulling a recoil rope and operating a manual lever or the like. Therefore, there is a problem that the operation of pulling the recoil rope and the operation of releasing the storage force must be performed separately, which is difficult to use.
[0004]
[Problems to be solved by the invention]
An object of the present invention is to provide a new lock type energy storage starter that solves the above-mentioned problems.
[0005]
[Means for Solving the Problems]
In order to achieve the above object, the lock type energy storage starter device according to the present invention adds the accumulated energy of the energy storage spring every time the recoil rope is pulled out, and starts the engine with the energy storage spring during the addition. For a lock type energy storage starter device of a type that releases the energy of the energy storage spring at once when the torque required to perform the operation is stored through the starting pulley and starts the engine, the recoil rope is pulled out. A power accumulation mechanism for adding the accumulated energy of the energy storage spring by repeating the operation, and allowing the energy accumulation spring to be released at the moment when the accumulated energy by the addition becomes larger than the torque required to start the engine. A power storage release mechanism and a return mechanism for returning to the state before the initial movement of the addition immediately after the power storage of the power storage spring is released.
[0006]
【Example】
The first embodiment and the second embodiment, which will be described in detail next, basically add the accumulated energy of the energy storage spring 27 each time the recoil rope 2 is pulled out, and during this addition, the accumulated energy is transmitted from the engine. At the moment when the load of the recoil rope 2 is larger than the load of the recoil rope 2. A power accumulation mechanism for adding the accumulated energy of the energy storage spring 27 by repeating the pull-out operation, and an accumulation energy for allowing the energy storage spring 27 to be released at the moment when the accumulated energy by the addition becomes larger than the load from the engine. It comprises a release mechanism and a return mechanism for returning to the state before the initial movement of the addition immediately after the release of the stored power of the stored power spring 27.
[0007]
That is, in the first embodiment shown in FIGS. 1 to 9, the driving unit 4 uses the driving reel 3 that is rotated by the pulling force of the recoil rope 2 that is rewinded by the recoil spring 1 as a driving source, and the driving force is stored by the driving reel 3 The energy storage spring mechanism 5 for storing energy in the spring 27 and the driving unit 4 and the energy storage spring mechanism 5 as the power transmission system of the energy storage spring mechanism 5 are in the engaged state when the recoil rope 2 is pulled out. In the case of the return operation of 2, the drive-side engagement / disengagement mechanism 6 for exhibiting the disengaged state, and the driven unit 7 that is driven by receiving the release force of the storage spring mechanism 5 The power storage system of the storage spring mechanism 5 and the driven part 7 is engaged when the recoil rope 2 is pulled out and released when the recoil rope 2 is returned. I will show you the state And a counter mechanism unit 9 for counting the number of pull-out operations of the recoil rope 2 and a predetermined number of operations. It has a release mechanism 10 that prevents release of the energy storage spring 27 before reaching, and allows the release when reaching.
[0008]
The drive unit 4 has a center shaft 12 erected in a starter case 11, and a center auxiliary shaft 13 that is slightly thinner than the center shaft 12 is provided at the end of the center shaft 12, and the drive reel 3 rotates on the center shaft 12. A concave portion 15 that freely supports and surrounds the boss portion 14 of the drive reel 3 is provided on an inner side surface of the drive reel 3, and a recoil rope groove 16 that opens in an outer peripheral direction on an outer peripheral wall of the concave portion 15. The recoil rope 2 is wound around the recoil rope groove 16, and the distal end of the recoil rope 2 can be pulled out of the starter case 11 through a draw-out opening (not shown). A spring chamber 17 centering on the center shaft 12 is provided integrally on the outer side surface, and the recoil spring 1 is mounted on the recoil spring 1 in the spring chamber 17. It is charged in the state to impart seeded return force on 2.
[0009]
The energy storage spring mechanism 5 constitutes a dish-shaped holder 20 that opens toward the engine side. The holder 20 has a shaft hole 21 formed in the center of the bottom wall thereof and a cylindrical hole formed on the outer surface of the cutting edge of the shaft hole 21. The holder 20 is rotatably supported by rotatably fitting the cylindrical bearing portion 22 to the center auxiliary shaft 13, and a shaft hole is formed in the inner surface of the bottom wall of the holder 20. A cylindrical clutch chamber 23 is provided in a state surrounding the one-way clutch 24 in which the holder 20 and the center auxiliary shaft 13 are engaged or disengaged from each other. When the holder 2 is pulled out, it is in an engaged state, and when it is unwound, it is in a detached state, that is, the holder 20 can be rotated only in one direction.
[0010]
Further, an eccentric bearing 26 is rotatably fitted on the outer periphery of the clutch chamber 23, and a power storage spring 27 is stored in the holder 20. The direction in which the power storage spring 27 stores power when the one-way clutch 24 is locked, and a one-way clutch 24 is inserted into the inner diameter space of the energy storage spring 27 at the same height position, the inner end of the energy storage spring 27 is locked to the outer peripheral surface of the eccentric bearing 26, and the outer end is also inserted into the holder 20. Lock on the peripheral surface.
[0011]
Further, a lid portion 29 for closing the opening of the holder 20 is integrally provided at the engine-side end of the eccentric bearing 26, and a pair of right and left transmission engagement projections is formed on a central outer surface of the lid portion 29 via a cylindrical portion 30. The ratchet pulley 32 is formed by providing the ratchet pulley 31, and the ratchet pulley 32 is supported on the center auxiliary shaft 13 by a center screw 33 so that the ratchet pulley 32 cannot be pulled out and can rotate.
[0012]
The drive-side engagement / disengagement mechanism 6 is formed of an engagement / disengagement section by the one-way clutch 24 and an engagement / disengagement section by the retainer 36 described below.
[0013]
The engagement / disengagement portion by the retainer 36 or the like winds a brake spring 35 around the bearing portion 22 of the holder 20, surrounds the brake spring 35 with the boss portion 14 of the reel 3, and In the portion 22, the retainer 36 is supported between the brake spring 35 and the bottom surface of the holder 20 so that the retainer 36 is rotatable about the bearing portion 22 and is constantly braked by the elasticity of the brake spring 35. A dog 38 is arranged between the reel 3 and the reel 3 so that a swing center shaft 39 of the dog 38 is rotatably supported on the reel 3, and an annular portion 40 surrounding the moving space of the dog 38 is attached to the bottom surface of the holder 20. A plurality of dog locking projections 41 are provided around the inner peripheral surface of the annular portion 40.
[0014]
The retainer 36 has a guide pawl 42 for dog take-out, a guide pawl 43 for dog retraction, and a pawl 44 for controlling the movable range of the retainer 36. When the recoil rope 2 is pulled out, the guide pawl 42 for dog pull-out is provided. The dog 38 is guided outward to be engaged with one dog locking projection 41, and when the recoil rope 2 is wound, the dog retracting guide claw 43 guides the dog 38 inward. The engagement state with the dog engaging projection 41 is released, and when the movable range regulating claw 44 of the retainer 36 engages with the peripheral wall of the support portion (not shown), the dog retracting guide claw 43 is moved to the dog 38. Is regulated to swing outward.
[0015]
The driven side engagement / disengagement mechanism 8 is configured such that a starting pulley 47 having a nut 46 screwed to a crankshaft (not shown) of the internal combustion engine and the ratchet pulley 32 face each other. Also, at a position corresponding to the transmission engaging projection 31 in the starting pulley 47, the state where the starting pulley 47 is engaged with the transmission engaging projection 31 when the rotation speed is equal to or lower than a predetermined rotation speed is released. The starting claws 48 each exhibiting a state are provided.
[0016]
Further, a lever-type stopper lever 50 is disposed in the starter case 11 near the ratchet pulley 32, and the stopper lever 50 is supported on the starter case 11 by a stay 51 and a support shaft 52 so as to be able to freely pivot. An engagement protrusion 54 is provided on the outer surface of the outer peripheral edge of the ratchet pulley 32 so as to correspond to one end 53 of the stopper lever 50 when the stopper 50 is in the horizontal position. When the one end 53 enters and the one end 53 is engaged with the engagement projection 54, the rotation of the ratchet pulley 32 is prevented, and when the one end 53 comes off, the rotation prevention is canceled.
[0017]
In the first embodiment, a coil spring (not shown) is provided as restoring means for returning the stopper lever 50 from the detached state to the rotation preventing state, but this is not shown in the figure.
[0018]
A shaft member 56 is erected below the other end 55 of the stopper lever 50, and an A bush 57 is fixed around the shaft member 56 so that it cannot rotate and cannot move up and down. A B bush 58 is rotatably and vertically movably fitted around a point above the bush 57, and a lower low point 59, an upper low point 60, a lower high point 61, and an upper A pair of left and right upward cams 64 and 65 formed of a high place 62 and a plurality of inclined surfaces 63... That make these places continuous are provided, and the upward cams 64 and 65 are provided on the lower end surface of the B bush 58. A receiving surface (not shown) is provided. In the drawing, reference numeral 67 denotes a pressure spring that presses the B bush 58 downward.
[0019]
Further, a driven counter gear 69 is provided around the outer peripheral surface of the B bush 58 so as to always mesh with the driving counter gear 68 on the outer peripheral surface of the holder 20, respectively. Due to the positional relationship, when the B bush 58 reaches a step (or another step) in front of the position farthest from the A bush 57, the one end 53 of the stopper lever 50 is out of the movement locus of the engagement projection 54. It is intended to escape from.
[0020]
That is, in the first embodiment, when the recoil rope 2 is pulled out while the ratchet pulley 32 is stopped by the stopper lever 50, the reel 3 rotates to wind up the recoil spring 1 and the drive reel 3 With the rotation, the dog guiding guide claw 42 of the retainer 36 secures the engagement state between the dog 38 and the dog locking projection 41, and the one-way clutch 24 secures the engagement state between the holder 20 and the center auxiliary 13. Accordingly, the drive reel 3 and the holder 20 are rotated integrally, and the storage spring 27 starts to store power.
[0021]
Along with this start, the driven counter gear 69 rotates via the driving counter gear 68 provided on the side surface of the holder 20, and the driven counter gear 69 moves along the upward cams 64 and 65 provided on the A bush 57. To rise.
[0022]
When the holder 20 reaches a predetermined number of revolutions and the driven counter gear 69 is located at the upper position 62 of the upward cams 64 and 65, the driven counter gear 69 pushes up the stopper lever 50 and stops the ratchet pulley 32. To release.
[0023]
With release of the stop of the ratchet pulley 32, the stored energy spring 27 is opened to rotate the ratchet pulley 32 and start the engine.
[0024]
When the reel 3 and the holder 20 rotate by pulling the recoil rope 2 after the start of the engine, the drive-side counter gear 68 and the driven-side counter gear 69 rotate, and the B bush 58 descends to a position closest to the A bush 57. With this lowering, the stopper lever 50 returns and engages with the ratchet pulley 32 again.
[0025]
When the torque required to start the engine is stored in the energy storage spring 27 in this way, the energy stored in the energy storage spring 27 is released at once through the starting pulley, and this releasing force is applied to the crankshaft. The engine is started to rotate via.
[0026]
When the engine is started, the starting pulley 47 is rotated by the driving force from the crankshaft through the engagement between the starting claw 48 and the transmission engaging projection 31, and when the rotation exceeds a predetermined number of rotations. The starting claw 48 swings outward due to the centrifugal force to automatically cancel the engagement with the transmission engagement projection 31 so as to continue the stable rotation of the engine.
[0027]
When the recoil rope 2 is pulled back, the drive reel 3 starts to reversely rotate by the recoil spring 1, and the dog retracting guide pawl 43 of the retainer 36 releases the engagement between the dog 38 and the dog engaging projection 41. The dock 38 is retracted, and the recoil rope 2 is wound around the drive reel 3 with the reverse rotation of the drive reel 3.
[0028]
Next, a second embodiment shown in FIGS. The same parts as those in the first embodiment are denoted by the same reference numerals.
[0029]
That is, a driving unit 4 that uses the reel 3 that is rotated by the pulling force of the recoil rope 2 that is rewinded by the recoil spring 1 as a driving source, a power storage spring mechanism unit 5 that stores power in the power storage spring 27 by rotation of the reel 3, In the case of the pull-out operation of the recoil rope 2, the driven portion 7, which is driven by receiving the release force of the force spring mechanism 5, and the driving portion 4 and the driven portion 7, are engaged with each other. A lock type energy storage type starter device including an engagement / disengagement ratchet mechanism 70 for returning the engagement when the recoil rope 2 returns. A counter mechanism unit 9 for counting the number of pull-out operations of the vehicle, and a release mechanism unit 10 for preventing release of the energy storage spring before the number of operations reaches a predetermined number, and permitting the release when the number reaches the predetermined number. It is those formed by provided.
[0030]
The drive unit 4 has a center shaft 12 erected at a central position in the starter case 11, the reel 3 is rotatably supported on the center shaft 12, and a boss 14 of the reel 3 is mounted on an inner side surface of the reel 3. And a rope groove 16 that opens in the outer peripheral direction on the outer peripheral wall of the concave portion 15, and the recoil rope 2 is wound around the rope groove 16, and a tip of the recoil rope 2 is formed. This portion can be pulled out of the starter case 11 through a draw-out opening (not shown), and a circular spring chamber 17 centered on the center shaft 12 is integrally provided on the outer side surface of the reel 3. The recoil spring 1 is inserted in such a state that the recoil spring 1 applies a rewinding force to the recoil rope 2.
[0031]
Further, separately from this, a lid portion 29 for closing the opening of the concave portion 15 is formed, and the lid portion 29 is supported at the tip of the center shaft 12 by a center screw 33 so as not to be able to be pulled out and to be rotatable. A tubular portion 71 is provided on the inner surface side of the central portion of the lid portion 29, and the tubular portion 71 is rotatably fitted to the outer periphery of the boss portion 14.
[0032]
The energy storing spring mechanism 5 accommodates the energy storing spring 27 in the concave portion 15, and the outer end of the energy storing spring 27 is formed between the cylindrical portion 71 of the lid 29 and the concave portion 15. Lock inside the outer periphery. The direction of winding of the energy storage spring 27 is such that when the recoil rope is pulled, the rotational driving force is stored in the energy storage spring 27.
[0033]
Further, a retainer support shaft 73 with an umbrella-shaped head 72 is provided on the head of the center screw 33, and a cylindrical enclosure 74 surrounding the retainer support 73 is provided on the outer surface of the lid 29. A chamber 75 is formed, a pre-cushion spring 76 is wound in the spring chamber 75, and a dog 78 described later is engaged between the pre-cushion spring 76 and an umbrella-shaped head 72 of the retainer support shaft 73. The retainer 79 performing the detachment function is supported in a state in which the retainer 79 can rotate and a state in which the retainer 79 is always subjected to braking by the elasticity of the free cushion spring 76.
[0034]
Further, a dog 78 functioning as a driving claw is arranged between the retainer 79 and the lid 29 to rotatably support the swing center shaft 80 of the dog 78 on the lid 29, and a moving space for the dog 78. Are integrally provided on the inner surface of a starting pulley 82 having an annular portion 81 surrounding the same, and a large number of dog-engaged driven projections 83 functioning as driven projections on the inner peripheral surface of the annular portion 81 are provided at equal intervals. And
[0035]
The retainer 79 has a guide nail 84 for pulling out a dog, a guide nail 85 for retracting a dog, and a claw 86 for restricting the movable range of the retainer 79. The dog 78 is guided outward to be engaged with one dog-engaged driven projection 83, and when the recoil rope 2 is wound up, the dog retraction guide claw 85 guides the dog 79 inward. Thus, the engagement state with the dog locking driven protrusion 83 is released.
[0036]
The driven portion 7 is a starting pulley 47 having a nut portion 46 screwed to a crankshaft (not shown) of the internal combustion engine, and the starter case 11 is attached to a fan case on the engine side (engine side). Occasionally, it is arranged to face the lid portion 29.
[0037]
Further, a lever-type stopper lever 50 is disposed in the starter case 11 near the lid 29 (corresponding to the ratchet pulley 32), and the stopper lever 50 is connected to the stay and the support shaft in the same manner as in the first embodiment. When the stopper lever 50 is in a horizontal state, the stopper lever 50 is disposed on the outer surface of the outer peripheral edge of the lid portion 29 (the ratchet pulley 32) so as to correspond to one end 53 of the stopper lever 50 when the stopper lever 50 is in the horizontal state. When the one end 53 of the stopper lever 50 enters the movement locus of the engagement protrusion 54 and the one end 53 is locked to the engagement protrusion 54, the lid 29 ( The rotation of the ratchet pulley 32) is prevented, and when the pulley comes off, the rotation prevention is canceled.
[0038]
A shaft member 56 is erected below the other end 55 of the stopper lever 50, and an A bush 57 is fixed around the shaft member 56 so that it cannot rotate and cannot move up and down. A B bush 58 is rotatably and vertically movably fitted around a portion above the bush 57, and further, a lower lower portion, an upper lower portion, a lower higher portion, an upper portion and A pair of left and right upward cams (not shown because they are the same as in the first embodiment) formed of a plurality of inclined surfaces that make these portions continuous are provided, and the B bush 58 is provided. A receiving surface (not shown) for the upward cams 64 and 65 is provided on the lower end surface of the cam.
[0039]
Further, a driven counter gear 69 is provided around the outer peripheral surface of the B bush 58 so as to always mesh with the driving counter gear 68 on the outer peripheral surface of the holder 20, respectively. Due to the positional relationship, when the B bush 58 reaches a step (or another step) in front of the position farthest from the A bush 57, the one end 53 of the stopper lever 50 is out of the movement locus of the engagement projection 54. It is intended to escape from.
[0040]
In the second embodiment, when the recoil rope 2 is pulled out while the lid 29 (the ratchet pulley 32) is stopped by the stopper lever 50, the reel 3 rotates to wind up the recoil spring 1 and this reel With the rotation of the hook 3, the dog-out guide claw 84 of the hook-shaped retainer 79 secures the engagement state between the dog 78 and the dog-locking projection 85, so that the reel 3 rotates integrally and the storage spring 27 Start storing energy.
[0041]
Following this start, the driven counter gear 69 rotates via the driving counter gear 68, and the driven counter gear 69 moves up along the upward cams 64, 65 provided on the A bush 57.
[0042]
When the reel 3 reaches a predetermined number of revolutions and the driven counter gear 69 is located at the upper position 62 of the upward cams 64 and 65, the driven counter gear 69 pushes up the stopper lever 50, and the lid 29 (the ratchet pulley). 32) Release the stop.
[0043]
With release of the stop of the lid 29 (ratchet pulley 32), the accumulated energy spring 27 that has been wound is opened to rotate the lid 29 (ratchet pulley 32) and start the engine.
[0044]
When the reel 3 rotates by pulling the recoil rope 2 after the start of the engine, the drive side counter gear 68 and the driven side counter gear 69 rotate, and the B bush 58 descends to the position closest to the A bush 57.
[0045]
With this downward movement, the stopper lever 50 returns and engages with the lid 29 (the ratchet pulley 32) again.
[0046]
When the torque required to start the engine is stored in the energy storage spring 27 in this way, the energy stored in the energy storage spring 27 is released at once, and this release force rotates the engine via the crankshaft. Start.
[0047]
When the engine is started, the driven portion (starting pulley 7) is rotated by the driving force from the crankshaft through the engagement between the dog 78 and the dog-locking driven protrusion 83, and this rotation reaches a predetermined rotational speed. When the dog 78 is over, the dog 78 automatically releases the engagement with the dog locking driven protrusion 83, and continues the stable rotation of the engine.
[0048]
When the recoil rope 2 is pulled back, the reel 3 starts to reversely rotate by the recoil spring 1, and the dog retracting guide claw 85 of the hook-shaped retainer 79 releases the engagement between the dog 78 and the dog locking driven projection 83. Then, the dock 78 is retracted, and the recoil rope 2 is wound around the reel 3 when the reel 3 rotates in the reverse direction.
[0049]
【The invention's effect】
The present invention is configured as described above and has the following effects.
[0050]
(1) In the conventionally known invention, the spring is stored by the compression force of the engine. However, the present invention is to gradually store the stored power by automatically locking the transmission mechanism to the engine with a stopper lever. Can be added to
{Circle around (2)} In the case of the type utilizing the compressive force of the engine as in the conventional example described above, if the recoil rope is pulled quickly, the amount of stored energy of the spring tends to increase, and if the rope is pulled slowly, the stored energy tends not to be stored. ADVANTAGE OF THE INVENTION The lock type energy storage starter apparatus which concerns on this invention can obtain the determined amount of energy storage regardless of the speed which pulls a recoil rope, and can start an engine in a stable state.
{Circle around (3)} The lock-type energy storage starter of the conventional example described above has a difficulty in operating since it is necessary to separate the operation of accumulating energy by pulling a recoil rope and the operation of releasing energy by a lever or the like. The lock-type energy storage starter device according to the present invention has the advantage that the energy storage can be released continuously after the operation of accumulating the energy by pulling the recoil rope.
(4) The lock mechanism is simply a lever that automatically operates, and the means for releasing the lever can be automatically performed only by raising the gear. The structure is simple, and the cost is reduced. Reduction and improvement in assemblability can be achieved.
(5) Conventionally, the accumulated energy was adjusted by changing the spring, and it was difficult to select the spring. However, in the present invention, the accumulated energy and the accumulated speed can be adjusted only by changing the counter reel ( The number of rotations of the holder = the amount of stored energy can be changed depending on the number of stages of the counter reel).
[Brief description of the drawings]
FIG. 1 is a plan view showing a first embodiment of the present invention.
FIG. 2 is a sectional view taken along the line AA of FIG. 1;
FIG. 3 is a perspective view of a main part.
FIG. 4 is an exploded perspective view of the main part.
FIG. 5 is a sectional view taken along the line B-B of FIG. 2 showing the dog in an engaged state;
FIG. 6 is a sectional view taken along the line BB in FIG. 2 showing the dog in a detached state;
FIG. 7 is a sectional view taken along FIG. 2C-C.
FIG. 8 is a sectional view taken along the line DD in FIG. 2 showing the engagement state of the starting claw.
FIG. 9 is a cross-sectional view taken along the line DD in FIG. 2 showing the starting claw detached.
FIG. 10 is a sectional view showing a second embodiment of the present invention.
FIG. 11 is a sectional view taken along the line E-E of FIG. 10 showing the dog in an engaged state;
FIG. 12 is a cross-sectional view taken along the line E-E of FIG. 10 showing the dog in a detached state.
[Explanation of symbols]
1 recoil spring
2 Recoil rope
3 reel
4 Driver
5 Energy storage spring mechanism
6 Drive side disengagement mechanism
7 Follower
8 Driven side engagement / disengagement mechanism
9 Counter mechanism
10 Release mechanism
11 Starter case
12 Center axis
13 Center auxiliary shaft
14 Boss
15 recess
16 Recoil rope groove
17 Spring chamber
20 holder
21 Shaft hole
22 Bearing
23 Clutch room
24 one-way clutch
26 Eccentric bearing
27 storage spring
29 Lid
30 cylindrical part
31 Transmission engagement projection
32 Ratchetbuli
33 Center screw
35 Brake spring
36 Retainer
38 dogs
39 swing center axis
40 Annular part
41 Dog locking projection
42 Dog Guide Claw
43 Dog Retraction Guide Claw
44 Moving range regulating claw
45 Bearing
46 Nut
47 Starting pulley
48 Starting Claw
50 Stopper lever
51 Stay
52 spindle
53 One end
54 Engagement projection
55 The other end
56 Support member
57 A bush
58 B bush
59 Lower side low place
60 Upper low place
61 Lower High Place
62 Upper Height
63 slope
64 Upward cam
65 Upward cam
67 Pressure spring
68 Drive side counter gear
69 driven counter gear
70 Ratchet mechanism for disengagement
71 tubular part
72 Umbrella Head
73 Retainer spindle
74 Enclosure
75 Spring Chamber
76 Free cushion spring
78 dogs
79 Retainer
80 Swing center axis
81 Annular part
82 Starting pulley
83 Dog driven follower
84 Dog Guide Claw
85 Guide Claw for Dog Retraction
86 Movable range regulating claw

Claims (1)

Each time the recoil rope is pulled out, the accumulated energy of the energy storage spring is added. When the torque necessary for starting the engine is stored in the energy storage spring during the addition, the energy stored by the energy storage spring is increased. A lock type energy storage starter device of the type that releases the engine at once through the starting pulley and starts the engine to rotate, a power storage addition mechanism that adds the power storage amount of the power storage spring by repeating the recoil rope pull-out operation. A power storage release mechanism that permits release of the power storage spring at the moment when the amount of power stored by the addition becomes larger than the torque required to start the engine; and A lock type energy storage starter device comprising: a return mechanism for returning to a state before initial movement.

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