阅读说明：本技术 骑乘式车辆的风挡装置 (Windshield device for riding type vehicle ) 是由 直井创 石田慎一郎 原直纪 于 2019-12-23 设计创作，主要内容包括：问题为,构造一种用于骑乘型车辆的风挡装置,该风挡装置包括高度可调节的屏板,结构简单,零件数量少,制造成本降低。方案为,本发明包括：屏板5；保持屏板的保持器11；支架12固定至车身侧构件7；引导孔71设置在支架中；臂13布置在保持器和支架之间；第一轴51可旋转地联接保持器和支架,且配置为沿着引导孔移动；第二轴52平行于第一轴布置,并且联接保持器和臂的一端；第三轴53平行于第一轴布置,并且联接支架和臂的另一端；并且,操作构件15设置在第一轴的端部部分处。(The problem is to construct a windshield device for a saddle-ride type vehicle, which includes a height-adjustable screen panel, and which is simple in structure, small in the number of parts, and reduced in manufacturing cost. The scheme is that the method comprises the following steps: a screen panel 5; a holder 11 holding the screen panel; the bracket 12 is fixed to the vehicle-body side member 7; the guide hole 71 is provided in the holder; the arm 13 is arranged between the holder and the bracket; the first shaft 51 rotatably couples the holder and the bracket, and is configured to move along the guide hole; the second shaft 52 is arranged parallel to the first shaft, and couples the holder and one end of the arm; the third shaft 53 is arranged parallel to the first shaft and couples the bracket and the other end of the arm; also, an operating member 15 is provided at an end portion of the first shaft.)

1. A windshield device disposed in front of a driver in a riding vehicle, the windshield device comprising:

a damper member arranged such that at least one of its height and angle is adjustable;

a holding member that holds the windshield member;

an attachment member fixed to a vehicle body and having a guide hole;

a connecting member disposed between the holding member and the attaching member;

a first shaft member rotatably coupling the holding member and the attachment member and configured to move along the guide hole;

a second shaft member that is arranged parallel to the first shaft member and that couples the holding member and one end of the connecting member;

a third shaft member that is arranged parallel to the first shaft member and couples the other ends of the attachment member and the connection member; and

an operating member provided at an end portion of the first shaft member.

2. The windshield device as recited in claim 1 wherein the operating member is configured to slide in its axial direction relative to the first shaft member and transition between a locked state that restricts movement of the first shaft member and a lock-released state that permits movement of the first shaft member.

3. The windshield device according to claim 2, wherein the guide hole is provided with at least two locking portions formed wider than other portions of the guide hole,

the operating member includes a fitting portion configured to be fitted to each of the locking portions, and

when the fitting portion is fitted to the locking portion, a locked state is created that restricts movement of the first shaft member along the guide hole.

4. The windshield device of claim 3, wherein at least one of the locking portion and the fitting portion is tapered in a direction of fitting the fitting portion to the locking portion, and

a biasing member configured to bias the operating member in a direction to bring the fitting portion into pressure contact with the locking portion is provided.

Technical Field

The present invention relates to a windshield device disposed in front of a driver of a riding vehicle, and more particularly, to a windshield device including a height-adjustable screen panel (windshield member).

Background

Generally, in a saddle-ride type vehicle, a screen is provided in front of a driver in order to reduce impact of traveling wind on the driver, and the height of the screen is adjustable to improve convenience of the driver (see patent document 1).

Documents of the prior art

Patent document

Patent document 1: JP2016-159719A

Disclosure of Invention

Object of the Invention

In order to raise and lower the screen panel, the above-described conventional technique is provided with left and right support members that support the screen panel, an operating lever operated by a driver, left and right rail brackets that have guide holes, respectively, and a coupling member that couples the rail brackets and the support members. The support member and the coupling member are rotatably connected, the coupling member and the rail brackets are movably connected, and the guide projection of each support member slides in the guide hole of each rail bracket and the elongated hole of the operating lever. In addition, a locking mechanism is provided to maintain the height of the bezel. This method is complicated in arrangement, large in the number of parts, and high in manufacturing cost.

In view of the foregoing background, it is an object of the present invention to simplify configuration, reduce the number of parts, and reduce manufacturing costs, and to provide a windshield device for a saddle-ride type vehicle, which includes a height-adjustable screen.

Means for solving the problems

In order to achieve the object, one aspect of the present invention provides a windshield device (1) arranged in front of a driver in a riding vehicle (2), the windshield device including: a windscreen member (5) arranged such that at least one of its height and angle is adjustable; a holding member (11) that holds the windshield member; an attachment member (12) fixed to a vehicle body and having a guide hole (71); a connecting member (13) arranged between the holding member and the attaching member; a first shaft member (51) rotatably coupling the holding member and the attachment member and configured to move along the guide hole; a second shaft member (52) arranged in parallel with the first shaft member and coupling the holding member and one end of the connecting member; a third shaft member (53) arranged in parallel with the first shaft member and coupling the other ends of the attachment member and the connection member; and an operating member (15) provided at an end portion of the first shaft member.

According to this aspect, the height of the windshield member can be smoothly adjusted by a simple configuration, that is, by a combination of a link structure having three axes and a slide structure having one axis (a three-joint slide mechanism). In addition, when the driver grips and operates the operating member provided at the end portion of the first shaft member, the first shaft member moves along the guide hole, and raises/lowers the holding member, so that the height of the windshield member can be adjusted. Therefore, it is possible to simplify the configuration, reduce the number of parts, and reduce the manufacturing cost.

In the above aspect, preferably, the operating member (15) is configured to slide in its axial direction relative to the first shaft member (51), and to shift between a lock state that restricts movement of the first shaft member and a lock release state that allows movement of the first shaft member.

According to this aspect, the driver can release and restore the locked state by operating the operating member in the axial direction. Therefore, the operability is improved by the simple configuration.

In the above aspect, preferably, the guide hole (71) is provided with two locking portions (72) which are formed wider than the other portions of the guide hole, the operating member (15) includes a fitting portion (62) configured to be fitted to each of the locking portions, and when the fitting portion is fitted to the locking portion, a locked state that restricts movement of the first shaft member along the guide hole is produced.

According to this aspect, it is possible to reliably restrict the movement of the first shaft member and maintain the locked state. Therefore, the operability is improved by the simple configuration.

In the above aspect, preferably, at least one of the locking portion (72) and the fitting portion (62) is tapered in a direction of fitting the fitting portion to the locking portion, and a biasing member (82) configured to bias the operating member (15) in a direction in which the fitting portion comes into pressure contact with the locking portion is provided.

According to this aspect, the operating member can be reliably held in the locked state. In addition, the locked state is released by a pulling operation on the operating member against the biasing force of the biasing member, and the locked state (initial state) is restored by the biasing force when the pulling operation on the operating member is stopped. Therefore, the operability is improved by the simple configuration.

Technical effects

Therefore, according to the above-described aspect, the height of the windshield member can be smoothly changed by a simple configuration, that is, by a combination of the three-axis link structure and the one-axis slide structure (three-joint slide mechanism). In addition, when the driver grips and operates the operating member provided at the end portion of the first shaft member, the first shaft member moves along the guide hole, and raises/lowers the holding member, so that the height of the windshield member can be adjusted. Therefore, it is possible to simplify the configuration, reduce the number of parts, and reduce the manufacturing cost.

Drawings

Fig. 1 is a side view showing a state where a windshield device according to the present invention is applied to a motorcycle (saddle-ride type vehicle);

FIG. 2 is a side view showing a screen adjuster;

FIG. 3 is a plan view showing a screen adjuster;

FIG. 4 is a perspective view showing a screen adjuster;

FIG. 5 is a side view showing state transitions (low position state and high position state) of the screen adjuster;

fig. 6 is a perspective view showing a main part of the operation member and the holder; and

fig. 7 is a sectional view showing state transition (a locked state and a lock released state) of the lock mechanism.

Detailed Description

Hereinafter, an example of applying an embodiment of the present invention to a motorcycle (saddle-ride type vehicle) will be described with reference to the drawings.

As shown in fig. 1, a windshield device 1 is provided at a front portion of a vehicle body 3 of a motorcycle 2 (saddle-ride type vehicle). The windshield device 1 includes a screen panel 5 (windshield member). The screen 5 is disposed in front of the driver to reduce the impact of the traveling wind on the driver. The screen panel 5 may be made of a transparent synthetic resin material or a glass material.

As shown in fig. 2, the windshield device 1 includes a screen adjuster 6 configured to adjust the height of the screen 5. In the present embodiment, the screen adjuster 6 can adjust the screen 5 to both the high position and the low position.

Also, in the present embodiment, the posture (inclination angle) of the panel 5 is changed simultaneously with the height of the panel 5. In addition, the driver can adjust the height of the screen panel 5 according to his/her preference. For example, the driver may select the low position with emphasis on modeling when traveling at low speed in an urban area, and the high position with emphasis on the windshield function when traveling at high speed on a highway.

In addition, in the present embodiment, the height of the screen panel 5 can be adjusted to two positions of the low position and the high position, but may be adjusted to three or more positions.

The screen adjuster 6 includes a holder 11 (holding member) configured to hold the screen 5, a bracket 12 (attaching member) fixed to the vehicle-body-side member 7, and an arm 13 (connecting member) arranged between the holder 11 and the bracket 12. The holder 11, the bracket 12, and the arm 13 may be made of a synthetic resin material.

The holder 11 includes a plurality of attachment portions 21 that fix the screen 5, a first hinge portion 22 rotatably and slidably coupled to the bracket 12, and a second hinge portion 23 rotatably coupled to the arm 13.

The bracket 12 includes a plurality of attachment portions 31 fixed to the vehicle-body side member 7, a slide guide portion 32 rotatably and slidably coupled to the holder 11, and a hinge portion 33 rotatably coupled to the arm 13.

The arm 13 includes a first coupling portion 41 coupled to the holder 11 and a second coupling portion 42 coupled to the bracket 12.

In addition, as shown in fig. 2 and 3, the screen adjuster 6 includes a first shaft 51 (first shaft member), a second shaft 52 (second shaft member), and a third shaft 53 (third shaft member). The first shaft 51, the second shaft 52, and the third shaft 53 may be made of a metal material.

The first shaft 51 rotatably couples the holder 11 and the bracket 12. The second shaft 52 rotatably couples the holders 11 and 13. The third shaft 53 rotatably couples the arm 13 and the stand 12. The first shaft 51, the second shaft 52, and the third shaft 53 are arranged in parallel to each other so as to constitute a three-shaft link structure.

Next, a height adjustment mechanism of the screen adjuster 6 will be described.

As shown in fig. 3 and 4, the screen adjuster 6 includes a pair of left and right operating members 15. Each operating member 15 is provided with a grip portion 61 to be gripped by the driver. In addition, the operating member 15 is disposed at a lateral end of the first shaft 51.

As shown in fig. 5(a) and 5(B), each slide guide portion 32 of the bracket 12 has a guide hole 71. The guide hole 71 is provided in each of the left and right slide guide portions 32. The guide hole 71 is formed to extend in the up-down direction.

When the driver grips the grip portion 61 of each operating member 15 and moves the grip portion 61 up and down, the first shaft 51 moves in the up-and-down direction along the guide hole 71. By this up-down operation, the holder 11 is moved in the up-down direction, so that the low position state shown in fig. 5(a) and the high position state shown in fig. 5(B) can be switched.

In the low position state shown in fig. 5(a), the first shaft 51 is arranged on the lower end side of the guide hole 71. In the high position state shown in fig. 5(B), the first shaft 51 is arranged on the upper end side of the guide hole 71. In addition, the arm 13 swings in response to the up-and-down movement of the first shaft 51 and the holder 11.

Next, a lock mechanism of the panel adjuster 6 will be described.

The screen adjuster 6 includes a lock mechanism configured to hold the screen 5 and the holder 11 at a prescribed height. In the present embodiment, the screen 5 and the holder 11 are held at two positions of the low position and the high position.

As shown in fig. 5(a) and 5(B), the locking portion 72 is formed wider than the other portions (having a larger diameter), and is provided at the lower end portion and the upper end portion of the guide hole 71 of the bracket 12. Each locking portion 72 is tapered from the outer surface side to the inner surface side of the holder 12.

On the other hand, as shown in fig. 6, each operating member 15 includes a fitting portion 62 configured to be fitted to each locking portion 72 of the bracket 12. The fitting portion 62 is tapered (formed in a truncated cone shape) so that the shapes of the fitting portion 62 and the locking portion 72 are complementary to each other.

Therefore, as shown in fig. 7A, in a state where the fitting portion 62 of each operating member 15 is fitted to the locking portion 72 of the guide hole 71, the first shaft 51 cannot move along the guide hole 71, and thus a locked state is produced in which the movement of the first shaft 51 is restricted.

On the other hand, as shown in fig. 7B, when the fitting portion 62 of each operating member 15 is disengaged from the locking portion 72 of the guide hole 71, a lock release state is produced that allows the first shaft 51 to move along the guide hole 71.

At this time, since the locking portion 72 and the fitting portion 62 are tapered in the direction of fitting the fitting portion 62 to the locking portion 72, the fitting portion 62 can be smoothly fitted to the locking portion 72, and looseness therebetween can be prevented in the state where the fitting portion 62 is fitted to the locking portion 72.

In addition, as shown in fig. 5(a) and 5(B), a pair of up-down locking portions 72 are provided in the guide hole 71. The holder 11 is held in a locked state at a low position where the fitting portion 62 of each operating member 15 is fitted to the lower locking portion 72; the holder 11 is held in a locked state at a high position where the fitting portion 62 of each operating member 15 is fitted to the upper locking portion 72.

In addition, as shown in fig. 7(a) and 7(B), each operating member 15 is provided with a center hole 63. The first shaft 51 is inserted into the center hole 63. Thus, the operating member 15 is supported by the first shaft 51 so as to slide in the axial direction thereof relative to the first shaft 51.

In addition, a stopper 81 and a spring 82 (biasing member) are accommodated in each operating member 15. The stopper 81 prevents the operating member 15 from being separated from the first shaft 51. The spring 82 includes a coil spring, and the first shaft 51 is inserted therein. The spring 82 is attached in a compressed state between the operating member 15 and the stopper 81. Therefore, the operating member 15 is biased by the spring 82 in a direction to bring the fitting portion 62 of the operating member 15 into pressure contact with the locking portion 72. Therefore, when the grip portion 61 of the operating member 15 is pulled outward against the biasing force of the spring 82, the lock release state is produced, and the locked state (initial state) is restored by the biasing force of the spring 82 when the pulling operation on the operating member 15 is stopped.

In addition, as shown in fig. 6, the first hinge portion 22 of the holder 11 (to which each operating member 15 is attached) is provided with a cylindrical projecting portion 85 that projects laterally. On the other hand, as shown in fig. 7(a) and 7(B), each operating member 15 is provided with a cylindrical recess 64 in which a cylindrical projecting portion 85 of the holder 11 is fitted. Thus, the operating member 15 is supported by the holder 11 so as to move in the axial direction of the first shaft 51.

As shown in fig. 4, a pair of left and right operating members 15 is provided. In addition, a pair of left and right guide holes 71 are provided, and a pair of left and right locking mechanisms are provided, which respectively include the fitting portions 62 of the respective operation members 15 and the locking portions 72 of the respective guide holes 71. Therefore, the driver can move the operating member 15 up and down by: the grip portions of the left and right operating members 15 are gripped with his/her left and right hands, respectively, while the left and right operating members 15 are pulled outward, and while the left and right locking mechanisms are set to the lock release state.

Next, an auxiliary mechanism of the panel adjuster 6 will be described.

The screen adjuster 6 includes an assist mechanism configured to bias the retainer 11 outward. More specifically, as shown in fig. 3, the auxiliary spring 91 is provided at the coupling portion of the holder 11 and the arm 13. The auxiliary spring 91 comprises one or more torsion coil springs, in particular two torsion springs in series, i.e. a double torsion spring. Both end arm portions of the auxiliary spring 91 are locked by the holder 11, and a central arm portion of the auxiliary spring 91 is locked by the arm 13. In addition, the second shaft 52 coupling the holder 11 and the arm 13 is inserted into the auxiliary spring 91.

As shown in fig. 2, a rotational force F1 that pushes and separates the holder 11 and the arm 13 is generated around the second shaft 52 by the biasing force of the auxiliary spring 91. In addition, a rising force F2 that pushes the first shaft 51 upward along the guide hole 71 is generated.

The holder 11 is always biased upward with respect to the bracket 12 by the auxiliary spring 91. Therefore, looseness in the respective coupling portions of the holder 11, the bracket 12, and the arm 13 can be prevented.

In addition, when switching from the low position state to the high position state, the driver grips the grip portion 61 of each operation member 15 and performs an operation to lift the screen panel 5 and the holder 11. At the same time, the biasing force of the auxiliary spring 91 offsets the weight of the screen 5 and the holder 11, thereby reducing the operating force to lift the screen 5 and the holder 11. Therefore, the operability (feeling of adjustment operation) is improved. In addition, when the locked state is released at the high position, the self-dropping of the screen panel 5 and the holder 11 can be prevented.

The specific embodiments have been described above, but the present invention is not limited to the above embodiments and various modifications are possible. For example, in the above embodiment, the angle (attitude) of the screen 5 changes with the height of the screen 5. However, only the height of the screen panel 5 may be adjusted, or only the angle (posture) of the screen panel 5 may be adjusted. In addition, in the above embodiment, the locking portion 72 is tapered in the direction of fitting the fitting portion 62 to the locking portion 72, and the fitting portion 62 is tapered so that the shapes of the fitting portion 62 and the locking portion 72 are complementary to each other. However, only one of the locking portion 72 and the fitting portion 62 may be tapered.

Glossary

1: windscreen device

2: motorcycle (riding type vehicle)

3: vehicle body

5: screen board (windshield component)

6: screen regulator

7: vehicle body side member

11: keeper (holding member)

12: support (attachment component)

13: arm (connecting component)

15: operating member

21: attachment part

22: a first hinge part

23: second hinge part

31: attachment part

32: slide guide part

33: hinge part

41: first coupling part

42: second coupling part

51: first shaft (first shaft component)

52: second axle (second axle component)

53: third shaft (third shaft component)

61: gripping part

62: fitting part

71: guide hole

72: locking part

82: spring (biasing member)