JP4230516B2 - Obstacle device for vehicle driving experience - Google Patents

Description

  The present invention is provided with a support portion disposed above a course of a vehicle, a support rod suspended on the support portion and capable of swinging back and forth along the route, and attached to a lower end portion of the support rod. The present invention relates to a vehicle driving experience obstacle device including an obstacle arranged in a course of a vehicle.

  When a vehicle detects the relative speed and distance of its own vehicle against an obstacle, such as a preceding vehicle, and determines that the degree of obstacle has exceeded a predetermined value, it applies tension to its seat belt. Or a brake system that automatically activates the brake to alert the driver, such as a rear-end collision reduction brake system (see Patent Document 1). It is very rare to actually experience the function. However, it is meaningful for the driver to acquire the functions of the above-mentioned device for safety and safe driving.

Therefore, in order to let the driver experience the functions of the above devices, conventionally, the vehicle will not be damaged even if the vehicle collides in a safe place such as a test course, and the driver will not be shocked greatly. A plurality of blocks made of shock absorbers are stacked as obstacles on the course of the vehicle, and a vehicle equipped with the device is driven toward the obstacle to let the driver experience the function of the device. ing. In this case, when the automatic brake for reducing rear-end collision damage is activated, it is preferable that the driver performs a sudden brake and stops before the obstacle. However, depending on the driver, the vehicle may collide with the obstacle. There are also many cases that end up. In such a case, it is necessary to immediately pile up blocks made of shock-absorbing material to assemble obstacles and prepare for the next driver's driving experience, so it takes time to assemble and quickly respond to the driving experience of many drivers. It was difficult.
Japanese Patent No. 3046186

  The present invention has been made in view of such circumstances, and during the functional experience driving of the vehicle obstacle handling device, the collision impact can be effectively mitigated even by the collision of the vehicle with the obstacle. An object of the present invention is to provide an obstacle device for a vehicle driving experience in which an obstacle can be easily and quickly installed after a collision.

  In order to achieve the above object, the present invention provides a support portion disposed above a course of a vehicle, a support rod suspended on the support portion and capable of swinging back and forth along the course, and the support An obstacle device for vehicle driving experience, comprising an obstacle attached to the lower end of the saddle and arranged in the course of the vehicle, wherein the obstacle is connected to the lower end of the support saddle; The mounting plate is composed of an obstacle main body made of an impact absorbing material that is attached so as to cover the mounting plate, and the radio wave reflection means covered by the obstacle main body is attached to the mounting plate. The first characteristic is that the radio wave transmitted by the radio wave detector of the obstacle handling apparatus equipped on the vehicle is reflected to the radio wave detector side.

  The support portion corresponds to a support arm in an embodiment of the present invention described later.

  In addition to the first feature, the present invention has a second feature in that the support rod is connected to the support portion so that the support rod can also swing in a direction perpendicular to the course of the vehicle.

  Furthermore, in addition to the first feature, the present invention has a third feature that the obstacle is provided with a stable block arranged so as to be in friction with the road surface.

Furthermore, in addition to the third feature of the present invention, the stable block is configured to be separable from the obstacle, and the stable block is connected to the support rod or the stable block via a connecting line . This is the fourth feature.

Furthermore, in addition to the first feature, the present invention provides a support column that is erected on a support stand installed outside the course of the vehicle, and extends to the upper end of the column up to the upper side of the vehicle path. A support arm as a unit is connected, and the support rod is detachably attached to the tip of the support arm, while the support arm is stored on the support base in an extended state where the support rod can be suspended. The fifth feature is that the state can be changed to the reduced state.

  According to the first feature of the present invention, when a vehicle equipped with an obstacle handling device is caused to travel toward the obstacle by the driver, the obstacle handling device of the vehicle is connected between the radio wave detector and the radio wave reflection means. When the relative speed and distance of the vehicle's obstacles are calculated from the transmission / reception status of the vehicle, and it is determined that the degree of obstacles exceeds a predetermined value, tension is applied to the vehicle's seat belt or braking is automatically performed. This will cause the driver to be alerted. As described above, the driver can experience the function of the obstacle handling device equipped on the vehicle by bringing the vehicle close to the obstacle. Obstacles suspended from above can be configured to be relatively small enough to contain the radio wave reflection means. If it is small, there is little fear of the driver and the vehicle is as close to the obstacle as possible. It is possible to practice emergency brake operation afterwards.

  And even if the driver collides the vehicle with an obstacle, the obstacle will largely swing forward with the support arm while absorbing the impact force from the vehicle in the obstacle body made of shock absorber. Thus, the impact force on the vehicle, its driver, obstacles, radio wave reflection means, etc. can be effectively mitigated.

  In addition, since the support rod is suspended from the support arm 3 disposed on the upper side of the vehicle, the support rod and the obstacle swing within the route, and the work of the operator who monitors outside the route is performed. It will not get in the way.

  After the collision, the obstacle can be easily placed at a fixed position in the course of the vehicle by returning the support rod to the vertical state, so that it can immediately respond to the next driver's experience driving.

  According to the second feature of the present invention, when the vehicle collides obliquely with the obstacle and the impact component in the left-right direction acts on the obstacle, the support rod is moved in the left-right direction of the course. However, it can be swung without resistance to release the above-mentioned impact component, and the bending load can be suppressed from being applied to the support rod.

  According to the third feature of the present invention, since the obstacle is provided with a stable block placed in frictional contact with the road surface, the obstacle 5 and the support by the wind are caused by the frictional resistance with the road surface of the stable block. It is possible to prevent the swaying of the kite, and thus to stably maintain the position of the obstacle as the driving target of the driver.

According to the fourth aspect of the present invention, since the stable block is connected to the support rod or the obstacle via the tether, the stable block is always kept in contact with the road surface regardless of the height adjustment of the obstacle. It can be placed in contact and can prevent obstacles from shaking. Moreover, even when the vehicle collides with the obstacle, the stable block is restricted from moving away from the obstacle by the tether, and the stable block can be easily reset.

According to the fifth aspect of the present invention, after using the obstacle device for vehicle driving experience, the device can be compactly collected on the support base, and thus the device can be easily moved and stored. .

  The form of the Example of this invention is demonstrated based on the suitable Example of this invention shown to an accompanying drawing.

  1 is a side view of a vehicle driving experience obstacle device according to an embodiment of the present invention in use, FIG. 2 is a side view of the device in a folded state, and FIG. 3 is a view as viewed in the direction of arrow 3 in FIG. 4 is an enlarged view of the main part of FIG. 3, FIG. 5 is an enlarged sectional view taken along line 5-5 in FIG. 1, FIG. 6 is an enlarged view taken along arrow 6 in FIG. 8 is a view taken along the arrow 8 in FIG. 7, FIG. 9 is a front view of the obstacle (an enlarged view taken along the arrow 9 in FIG. 4), FIG. 10 is a cross-sectional view taken along line 10-10 in FIG. 11 is a sectional view taken along line 11, FIG. 12 is an explanatory diagram of the operation of the obstacle device for vehicle driving experience, and FIG. 13 is a diagram corresponding to FIG. 7 showing another embodiment of the present invention.

  First, in FIG. 1, the vehicle V is equipped with the above-described known obstacle handling device, and a radio wave detector 45 (see also FIG. 3) of the device is attached to the front end surface of the vehicle V. The vehicle driving experience obstacle device D of the present invention is installed at a point on the course P of the vehicle V that is sufficiently away from the vehicle V forward.

  The vehicle driving experience obstacle device D of the present invention is connected to a support stand 1 installed outside the path P of the vehicle V, a support column 2 standing on the support stand 1 and the upper end of the support column 2. The support arm 3 that extends above the path P of the vehicle V, the support rod 4 that is suspended at the tip of the support arm 3 and can swing back and forth along the path P, and the support rod 4 And an obstacle 5 disposed in the path P.

  1 to 4, the support base 1 has a square shape in plan view, casters 13 with brakes are provided at the four corners, and a handle 6 for pushing a hand is fixed at the rear side opposite to the course P of the vehicle V. It is possible to move the support base 1 by human power. A plurality of stays 7 that reinforce the column 2 are obliquely connected between the support 1 and the column 2.

  In FIG. 4, the support 2 is provided with a horizontal arm portion 2a extending in the left-right direction parallel to the path P at its upper end, and a pair of left and right brackets 8 protruding from the upper surface of the horizontal arm portion 2a. Are connected via a pivot 9 (see also FIG. 1).

  The support rod 4 has a first arm half 3a having a boss 10 rotatably supported by the pivot 9 at the base end, and can be folded via a joint pin 11 at the distal end of the first arm half 3a. It is comprised with the 2nd arm half body 3b connected. The first arm half 3a is composed of a pair of left and right arm members 12, and a cross member 15 that integrally couples both arm members 12 in the vicinity of the base end portion thereof. The boss 10 is integrally formed. These arm members 12 are bent in a square shape on the base end side, the cross member 15 is disposed in front of the bent portion, and a telescopic cylinder 16 is attached between the cross member 15 and the column 2. It is done. The telescopic cylinder 16 has a built-in pneumatic pump so that the telescopic cylinder 16 can be extended by reciprocating the pump operating lever 16a, and the telescopic cylinder 16 can be contracted by releasing the pressure from the telescopic cylinder 16. It has become.

  Both arm members 12 are narrowed to each other toward the tip, and a bracket 17 projects from the upper surface of the tip. On the other hand, a boss 18 disposed between the brackets 17 is formed in the vicinity of the base end portion of the second arm half 3b, and this boss 18 is rotatably connected to the bracket 17 via the joint pin 11. Is done. Then, in order to maintain the extended state of the first and second arm halves 3a and 3b, the pair of arm members 12 of the first arm member 12 includes a second arm half 3b as shown in FIGS. The first stopper plate 19 that supports the upper surface of the tip end portion and the second stopper plate 20 that supports the upper surface of the intermediate portion of the second arm half 3b are fixed.

  Thus, when the telescopic cylinder 16 is extended, the first arm half 3a is rotated in the horizontal direction as shown in FIG. 1, and at this time, the second arm half 3b is moved around the joint pin 11. It can be rotated outward and horizontally extended. On the contrary, if the telescopic cylinder 16 is contracted, the first arm half 3a can be rotated downward as shown in FIG. At that time, the second arm half 3b is rotated around the joint pin 11 so as to be separated from the first and second stopper plates 19 and 20, and is folded to overlap the first arm half 3a. 1 is stored. In order to maintain this folded state, the first and second arm halves 3a and 3b are provided with brackets 41 and 42 that face each other in this state, and a connecting pin 43 is inserted into these in a detachable manner. (See FIG. 2).

  Next, a connection structure between the support arm 3 and the support rod 4 will be described with reference to FIGS.

  A control box 21 is secured to the front end of the support arm 3, that is, the front end surface of the second arm half 3 b by bolts 22. A bearing housing 23 disposed in the box 21 is welded to the outer end wall of the control box 21, and is orthogonal to the path P of the vehicle V by a double row ball bearing 24 mounted on the bearing housing 23. The horizontal support shaft 25 is rotatably supported. Both ends of the support shaft 25 protrude into and out of the control box 21, a large-diameter shaft portion 25 a protruding out of the control box 21, and a nut 27 screwed into the support shaft 25 in the control box 21. Thus, the axial movement of the support shaft 25 with respect to the ball bearing 24 is restricted.

  A known rotary hydraulic damper 29 is provided in the control box 21, a casing of the hydraulic damper 29 is fixed to the control box 21, a support shaft 25 is connected to the rotor inside, and the support shaft 25 is rotated. On the other hand, a certain damping force is applied.

  Further, outside the control box 21, a swing lever 26 having a tip portion directed downward is detachably fitted to the large-diameter shaft portion 25 a of the support shaft 25 via a one-way clutch 28.

  The swing lever 26 is restrained from detaching from the large-diameter shaft portion 25 a by a knurled nut 31 screwed to the support shaft 25, and the knurled nut 31 is a split pin attached to the tip of the support shaft 25. 32 prevents separation. The lower end portion of the swing lever 26 is connected to the upper end portion of the support rod 4 via a pivot 33 arranged in a direction orthogonal to the support shaft 25.

  The one-way clutch 28 allows the support rod 4 to rotate forward together with the swing lever 26 toward the front of the path P of the vehicle V, but prevents the rearward rotation of the support rod 4. Ratchet type, sprag type, roller A known type such as a mold is used. Further, the rocking lever 26 and the one-way clutch 28 can be separated from the support shaft 25 by removing the split pin 32 and the knurled nut 31.

  Next, referring to FIGS. 4 and 9 to 11, the obstacle 5 and its mounting structure to the support rod 4 will be described.

  As shown in FIGS. 9 and 10, the obstacle 5 includes an obstacle main body 5a made of a shock absorbing material such as foamed urethane having a vertically long rectangle when viewed from the front from the vehicle V side, and the obstacle main body 5a. It is composed of an elastic mounting plate 5b having a cross shape made of a leaf spring to be embedded, and radio wave reflecting means 34 which is mounted on the elastic mounting plate 5b and embedded in the obstacle body 5a together with the elastic mounting plate 5b. The lower end of the support rod 4 is bolted to the upper end of the elastic mounting plate 5b. The bolt coupling portion is also embedded in the obstacle body 5a. In the illustrated example, the radio wave reflecting means 34 includes a plurality of reflecting mirrors 34a each having a triangular pyramid-shaped concave reflecting surface. One reflecting mirror 34a is fixed to one place. The obstacle 5 is arranged in the course P so as to face the radio wave detector 45 attached to the front surface of the vehicle V.

  In the center of the front of the obstacle body 5a facing the vehicle V on the path P, as shown in FIG. 9, a target whose color tone stands out from the surroundings with a size that can be recognized by the driver of the vehicle V waiting in the distance. A mark 35 is displayed.

  As shown in FIG. 4, a stable block 36 that can be installed on the road surface is connected to the rear surface of the obstacle 5 via a hook-and-loop fastener 37. At the upper end of the stable block 36, a tether 38 having an adjustable length for connecting it to the support rod 4 is provided.

  Referring again to FIG. 2, when a support rod 4 removed from the support arm 3 and an obstacle 5 are placed on a part of the plurality of stays 7 that reinforce the support column 2, the support rod 4 in an upright state is placed. A belt 39 is provided for securing the cable to the stay 7.

  In the above, the one-way clutch 28 and the hydraulic damper 29 are set so that the swinging movement of the support rod 4 from the front swing position to the rear is less than the swing resistance of the support rod 4 due to the collision with the obstacle 5 of the vehicle V. The swing control means 30 is configured to increase the dynamic resistance.

  Next, the operation of this embodiment will be described.

  In order for the driver to experience the function of the obstacle handling device equipped in the vehicle V, first, the support base 1 is fixed to the side of the path P of the vehicle V, the connecting pin 43 is removed, and then the telescopic cylinder 16 is installed. When the first arm half body 3a is rotated upward in a horizontal state by the extension operation, the second arm half body 3b is rotated outward around the joint pin 11. On the way, the swing lever 26 connected to the bearing rod 4 is attached to the support shaft 25 by the knurled nut 31 and the split pin 32 as described above. After the attachment, if the telescopic cylinder 16 is further extended to make the first arm half 3a horizontal, the second arm half 3b is also supported by the first and second stopper plates 19 and 20 and becomes horizontal. . Thus, when the support arm 3 composed of the first and second arm halves 3a and 3b is in a horizontal state, the support rod 4 connected to the tip end portion thereof is in a suspended state. At this time, if the operator applies a load to the support rod 4 in the vertical direction, the support rod 4 can be easily brought into the vertical state by the action of the one-way clutch 28 and the hydraulic damper 29 interposed between the support arm 3 and the support rod 4. Can be. Further, by finely adjusting the height position of the tip of the support arm 3 by the operation of the telescopic cylinder 16, the target mark 35 of the obstacle 5 connected to the lower end of the support rod 4 is moved to the radio wave detector of the vehicle V on the path P. 45 can be disposed at the directly facing position.

  Thereafter, the stable block 36 placed in frictional contact with the road surface is connected to the back surface of the obstacle 5 via the surface fastener 37, and the tether 38 extending from the obstacle 5 is tied to the support rod 4. The stabilization block 36 can stabilize the obstacle 5 in a fixed position by friction resistance with the road surface, and can prevent the obstacle 5 and the support rod 4 from shaking due to wind.

  In this case, it is preferable that the tether 38 has an appropriate slack that allows the surface fastener 37 to adjust the connection position of the stable block 36 to the obstacle 5. The adjustment of the connection position of the stable block 36 to the obstacle 5 by the surface fastener 37 is performed in accordance with the height adjustment of the obstacle 5 according to the height of the radio wave detector 45 of the vehicle V. By this adjustment, The stable block 36 can always be placed in frictional contact with the road surface.

  As described above, when the obstacle 5 is set at a predetermined position and the driver causes the vehicle V to run toward the obstacle 5 from a position sufficiently away from the obstacle 5, the obstacle handling apparatus for the vehicle V is provided. The relative speed and distance of the vehicle V with respect to the obstacle 5 are calculated from the state of radio wave transmission / reception between the radio wave detector 45 and the radio wave reflection means 34, and the obstacle degree is further calculated. When it is determined that the vehicle has exceeded, tension is applied to the seat belt of the vehicle V or the brake is automatically operated to alert the driver. As described above, the driver can experience the function of the obstacle handling device equipped in the vehicle V by making the vehicle V approach the obstacle 5 with certainty.

  At this time, since the target mark 35 is displayed in front of the obstacle 5 with a color tone that stands out from the surroundings in a size that can be recognized by the driver of the vehicle V waiting in the distance, This makes it easy to watch the obstacle 5 and drive the vehicle accurately toward the obstacle 5 without being distracted by the surrounding scenery.

  When the obstacle handling device of the vehicle V is activated, it is desirable that the driver immediately executes a sudden braking operation and stops the vehicle V before the obstacle 5. As shown, the vehicle V may collide with the obstacle 5. In this case, the obstacle 5 and the stable block 36 receive an impact force from the vehicle V. At this time, the swing lever 26 connected to the support rod 4 is applied to the support shaft 25 of the support arm 3 via the one-way clutch 28. Since the vehicle 5 is supported and is allowed to swing in the traveling direction of the vehicle V, and the obstacle body 5a of the obstacle 5 is made of a collision absorber, the obstacle 5 is made smooth forward. To absorb the collision energy of the vehicle V. Therefore, not only the vehicle V but also the obstacle 5 can be prevented from being damaged, and the fear given to the driver of the vehicle V can be greatly suppressed.

  By the way, the obstacle 5 suspended from the support arm 3 can be configured to be relatively small enough to contain the radio wave reflecting means 34. If the obstacle 5 is small, there is little fear to the driver, and the vehicle V It is also possible to practice that emergency braking operation is performed after moving as close to the obstacle 5 as possible.

  On the other hand, even if the stable block 36 attached to the obstacle 5 is separated from the obstacle 5 by separation of the surface fastener 37 due to the impact force from the frictional resistance with the road surface and the impact force from the vehicle V, the support block 4 and Owing to the presence of the connecting cord 38 between the stable blocks 36, the stable block 36 is swung together with the obstacle 5, so that the stable block 36 can be prevented from separating and flying away.

  Further, since the support rod 4 and the swing lever 26 are connected to the swing lever 26 via a pivot 33 that is orthogonal to the support shaft 25, the vehicle V collides with the obstacle 5 in an oblique manner. In this case, the support rod 4 can swing in the left-right direction around the pivot 33 without resistance, and the impact component force can be released. It can suppress that the bending load of the left-right direction is added to.

  The obstacle 5 is connected to the support rod 4 via an elastic mounting plate 5b embedded in the obstacle main body 5a, and the electromagnetic wave reflecting means 34 is attached to the elastic mounting plate 5b. The impact received from V is absorbed not only by the obstacle main body 5a made of shock absorber, but also by the bending of the elastic mounting plate 5b, and the impact applied to the vehicle V, the support rod 4 and the radio wave reflection means 34 is effectively prevented. Can be relaxed.

  Further, since the support rod 4 is suspended from the support arm 3 disposed above the course P of the vehicle V, the support rod 4 and the obstacle 5 are swung within the course P, so It will not interfere with the work of the worker who is monitoring with.

  After the collision, when the obstacle 5 that has swung forward in the vehicle V loses momentum and tries to swing back, the one-way clutch 28 is locked and prevents the support rod 4 from swinging back. . However, since the hydraulic damper 29 that attenuates the swinging of the support arm 3 is interposed between the support shaft 25 and the support arm 3, the hydraulic damper 29 is supported regardless of the locked state of the one-way clutch 28. 4 slow return swinging is allowed. Therefore, even if the vehicle V is stopped on the return swing trajectory of the obstacle 5, the obstacle 5 comes into contact with the vehicle V with a soft feel, and thus adversely affects the vehicle V and the obstacle 5. Is suppressed. Further, when the damping force of the hydraulic damper 29 is large and the support rod 4 stops at the forward swing position, after the vehicle V is moved from the collision position, the operator returns the swing force in the return direction to the support rod 4. Can be easily returned to the original vertical position.

  In this way, the support rod 4 is returned to the vertical state, and the stable block 36 brought into frictional contact with the road surface is connected to the obstacle 5 through the surface fastener 37 again, so that the preparation work for the next trial operation can be performed quickly and easily. It can be carried out.

  After using the vehicle driving experience obstacle device D, as shown in FIG. 2, the support arm 3 is folded and stored on the support base 1, and the support arm 3 is removed from the support rod 4 to support the support rod 4. Is mounted on the support base 1 together with the obstacle 5, the support rod 4 is secured to the stay 7 with the belt 39, the connecting cord 38 is unwound, the hook-and-loop fastener 37 is removed, and the stable block 36 is also mounted on the support base 1. The obstacle device D for vehicle driving experience can be compactly gathered on the support base 1, and therefore the device D can be easily moved and stored.

  Next, another embodiment of the present invention shown in FIG. 13 will be described. This embodiment is different from the previous embodiment except that the control box 21 contains a known friction damper 129 in which a disc spring 47 and a multi-plate friction plate 48 are combined instead of the rotary hydraulic damper 29. Since the configuration is the same as that of the embodiment, the same reference numerals are given to the portions corresponding to those of the previous embodiment in FIG.

  Similarly to the hydraulic damper 29, the friction damper 129 also applies a damping force to the rotation of the support shaft 25. Therefore, after the vehicle V collides with the obstacle 5, the return swing of the support rod 4 can be controlled slowly. Can do. Accordingly, the friction damper 129 cooperates with the one-way clutch 28 to move backward from the front swing position of the support rod 4 rather than the swing resistance of the support rod 4 to the front due to the collision with the obstacle 5 of the vehicle V. The swing control means 30 is configured to increase the return swing resistance.

The present invention is not limited to the above embodiment, and various design changes can be made without departing from the scope of the invention. For example, the stable block 36 can be connected to the obstacle 5 via the tether 38.

The side view in the use condition of the obstacle apparatus for vehicle driving experiences which concerns on the Example of this invention. The side view in the folded state of the same apparatus. FIG. 3 is a view taken in the direction of arrow 3 in FIG. 1. The principal part enlarged view of FIG. FIG. 5 is an enlarged sectional view taken along line 5-5 in FIG. FIG. 6 is an enlarged view taken along arrow 6 in FIG. 1. FIG. 7 is an enlarged vertical sectional view of a portion 7 in FIG. 1. FIG. 8 is a view taken in the direction of arrow 8 in FIG. 7. The front view of an obstruction (9 arrow enlarged view of FIG. 4). FIG. 10 is a sectional view taken along line 10-10 in FIG. 9; FIG. 11 is a sectional view taken along line 11-11 in FIG. 10; Action | operation explanatory drawing of the obstacle apparatus for vehicle driving experiences. FIG. 8 is a diagram corresponding to FIG. 7 showing another embodiment of the present invention.

Explanation of symbols

D: Obstacle device P for vehicle driving experience P ... Course V ... Vehicle 1 ... Support stand 2 ... Post 3 ... Support part (Support arm)
4... Support rod 5. Obstacle 34... Radio wave reflection means 35... Target mark 36... Stable block 38. Radio wave detector

Claims (5)

A support portion (3) disposed above the path (P) of the vehicle (V), and a support rod that is suspended by the support portion (3) and can swing back and forth along the path (P). 4) and an obstacle device for vehicle driving experience comprising an obstacle (5) attached to the lower end of the support rod (4) and disposed in the course (P) of the vehicle (V),
The obstacle (5) is attached to the mounting plate (5b) connected to the lower end of the support rod (4), and the shock absorber is attached to the mounting plate (5b) so as to cover it. A radio wave reflecting means (34) covered with the obstacle main body (5a) is attached to the mounting plate (5b), and the radio wave reflecting means (34) is connected to the vehicle (V). An obstacle device for a vehicle driving experience, characterized in that the radio wave transmitted by the radio wave detector (45) of the obstacle handling device equipped with is arranged so as to be reflected toward the radio wave detector (45). The obstacle device for vehicle driving experience according to claim 1,
Obstacle device for vehicle driving experience, characterized in that the support rod (4) is connected to the support portion (3) so that it can also swing in a direction perpendicular to the path (P) of the vehicle (V). . The obstacle device for vehicle driving experience according to claim 1,
An obstacle device for vehicle driving experience, characterized in that a stable block (36) arranged so as to rub against the road surface is connected to the obstacle (5). The obstacle device for vehicle driving experience according to claim 3,
The stable block (36) is configured to be separable from the obstacle (5), and the stable block (36) is connected to the support rod (4) or the obstacle (5) via a tether (38). An obstacle device for vehicle driving experience characterized by being connected to ) . The obstacle device for vehicle driving experience according to claim 1,
A support column (2) is erected on a support base (1) installed outside the course (P) of the vehicle (V), and above the path (P) of the vehicle (V) at the upper end of the support column (2). The support arm (3) as the support part is connected to the support arm (3), and the support arm (3) is detachably attached to the tip of the support arm (3), while the support arm (3) An obstacle device for a vehicle driving experience, characterized in that the state can be changed between an extended state in which the support rod (4) can be suspended and a contracted state in which the support rod (4) is stored.

Images