TW202406609A - Virtual experience device enabling experience of sensation of falling which comprises a flat plate, an appliance and a VR head-mounted device to enable an experience of a sensation of falling - Google Patents

Abstract

A virtual experience device enabling an experience of a sensation of falling according to the present invention comprises: an appliance, which has a rotating support part for rotatably supporting a flat plate; and a VR head-mounted device, which is at least internally provided with a height sensor and a display for displaying a virtual space. The VR head-mounted device is equipped with a sensor that detects a second state in which the height from the floor surface where the above-mentioned appliance is installed becomes a predetermined height or less. Furthermore, the virtual experience device is equipped with image software that includes a stop image and a falling image switched from the stop image when the second state is reached.

Description

A virtual experience device that allows you to experience the feeling of falling

The present invention relates to a virtual experience device that can virtually experience the feeling of falling from high-altitude bouncing or roller coaster rides.

Various gymnastics training devices that promote health by using exercise equipment to move the body have been put into practical use. For example, a training device has been proposed in which the body is fixed on a rotatable flat plate and the flat plate is repeatedly rotated and reversed to rotate the body back and forth in a see-saw shape (Patent Document 1).

On the other hand, training devices that promote health through a combination of exercise equipment and VR (Virtual Reality: Virtual Reality) head-mounted equipment are also put into practical use. For example, we sell a training device (software) that combines an indoor bicycle-shaped exercise device called an AEROBIKE (registered trademark) or a flywheel with a VR head-mounted device. By installing Bluetooth (registered trademark) and VR The rotation of the pedal of the rotation sensor connected to the head-mounted device advances the Street View (registered trademark) image with the VR head-mounted device (Non-Patent Document 1).

In addition, various software that can use VR headsets and hand switches to enjoy 3D images or more realistic games are also becoming more and more popular. This also includes high-altitude bouncing (bungee jumping) VR software that plays back images of roller coasters or images of high-altitude bouncing on a VR head-mounted device (Non-Patent Document 2). [Prior art documents] [Patent Document]

[Patent Document 1] Utility Model Publication 53-140560 [Non-patent literature]

[Non-patent document 1] VZFIT (https://www.virzoom.com/) [Non-patent document 2] Ryujin Suspension Bridge Bungee VR (https://play.google.com/store/apps/details?id=jp.co.ohtsuribashi.bungee)

[Problem to be solved by the invention]

However, a training device that only uses sports equipment is intended to promote health, and therefore does not have a game quality in itself. In addition, the combination of sports equipment and VR headsets has limited fun as a game and cannot create the sense of terror or challenge sought after by young people. In addition, even if the game uses a VR head-mounted device and hand switches, it is a high-altitude jumping video software, but because the body does not move, the sense of terror or challenge is insufficient, and the physical sense is less satisfying than the actual high-altitude jumping.

In this regard, an object of the present invention is to provide a virtual experience device that can provide a feeling of falling that is closer to the actual feeling of high-altitude bouncing or roller coaster. [Means to solve problems]

The virtual experience device of the present invention that can experience the feeling of falling has: The tablet, which holds the experiencer in place; An instrument formed with a rotation support portion that rotatably supports the flat plate so that the flat plate can be rotated from a first state in which the head of the experiencer is positioned above the feet to an inverted state in which the body of the experiencer is inverted. ;and VR head-mounted equipment, which is installed on the head of the above-mentioned experiencer; The above-mentioned VR headsets have: A sensor that detects the second state when the above-mentioned appliance is rotated from the above-mentioned first state and the height from the floor surface on which the above-mentioned appliance is installed becomes below a predetermined height; A monitor that displays images in a virtual space; and Image software including a stop image displayed on the display in the first state, and a falling image displayed on the display after entering the second state.

The experiencer is fixed on the tablet in a prone position. For example, a strap is used to fix the user, and the strap is used to fix the user's ankle or abdomen to a flat plate. The flat plate on which the experiencer is fixed can rotate the experiencer from the first state in which the head is higher than the feet to the inverted state in which the body of the experiencer is inverted.

The experiencer installs the VR head-mounted device on the head using the attached straps. The sensor provided in the VR head-mounted device detects the above-mentioned second state. This sensor can use a positioning sensor that detects the position (orientation) of the VR headset. The positioning sensor is composed of, for example, a plurality of cameras arranged in a VR head-mounted device. By processing the images captured by these cameras, the position of the VR head-mounted device (the orientation on the three axes) is detected. A gyro sensor can also be used as another example of a positioning sensor. Furthermore, it can also be composed of a well-known sensor such as an infrared sensor or an LED sensor. In the present invention, it suffices as long as it is a sensor that can detect at least the height on the Z-axis. In addition, it is expected that these sensors have the function of following (tracking) the position changes of the VR head-mounted device.

In addition, imaging software is pre-installed in the VR head-mounted device.

The image software includes a stop image displayed on the display in the first state, and a falling image displayed on the display after entering the second state. The stop image is the image of the surroundings before falling, and the falling image is the image of the falling direction after falling. The image software is, for example, high-altitude bouncing image software.

In the above configuration, the experiencer is fixed on the tablet in a prone position and starts the imaging software. At this time, the experiencer is in the first state with the head positioned higher than the feet, the imaging software outputs the stop image, and the display in the VR head-mounted device displays the stop image. If the sensor of the VR head-mounted device is a sensor that detects and tracks the position (orientation) of the VR head-mounted device, the stop image changes according to its detection output. That is, if the experiencer rotates his head, the image following the rotation direction is displayed as a stopped image.

When the above-mentioned sensor detects that the above-mentioned appliance rotates from the first state and the height from the floor surface on which the above-mentioned appliance is installed becomes lower than a predetermined height, the second state switches from the stop image to the falling image. That is, when the tablet starts to rotate forward from the first state, the stop image is switched to the falling image when the height from the floor to the position of the VR head-mounted device is below a predetermined height, that is, the second state is used as a trigger. At this time, since the tablet is rotating, the falling image will be synchronized with the rotation of the experiencer's body and displayed on the display in the VR head-mounted device.

In this way, by switching the image displayed on the monitor of the VR head-mounted device from the stop image to the falling image in synchronization with the rotation of the tablet, the experiencer can experience a strong immersion including the horror of falling downward from the highest position in the virtual space. feel.

In a preferred embodiment, the falling image includes an image of the experiencer's body still falling after becoming in the inverted state. The time for the tablet to rotate from the second state to the inverted state is about 1 second, but the time for the falling image is longer than that, for example, about 4 seconds. Therefore, from the moment the experiencer becomes inverted and stops spinning, the falling image continues.

The important thing here is to display the falling image during the 1 second when the experiencer changes from the second state to the inverted state. The experiencer feels the fall through the falling image and rotation during this 1 second period, so the feeling of falling is deeply impressed. Therefore, when you stop rotating in an inverted state, simply displaying the falling image will give the illusion that you are still falling. With this, even if the rotation time is short, only 1 second, you can virtually experience a 4-second fall.

In this way, initially by rotating the tablet and displaying the falling image, the experiencer can be impressed by the falling feeling. Therefore, only displaying the falling image subsequently can give the experiencer the illusion of the same falling feeling as before. By utilizing the illusion of the human brain in this way, a virtual experience with a real sense of falling can be achieved, so it has the advantage of being simple and good in structure.

Furthermore, in a preferred embodiment, when the falling image reaches the lowest position, the VR head-mounted device reports to the outside that it is in the lowest position. Notification to the outside can be performed, for example, by vibrating a switch on the hand connected to the VR headset via Bluetooth (registered trademark). By notifying the outside that the falling image is in the lowest position, the immersion after reaching the lowest position can be further enhanced. For example, when the assistant grasps that the falling image is in the lowest position through the vibration of the switch on the hand, the tablet is rotated in the opposite direction. At this time, the falling image is set to the image when returning from the lowest position to the top. Through the reverse rotation of the image and the plate, the experiencer has the illusion of returning to the top or floating due to negative acceleration near the lowest position. At this time, by using the illusion of the human brain, a virtual experience of the falling state near the actual lowest position can be carried out. [Effects of the invention]

In this way, the present invention can experience an actual falling state with a strong sense of immersion in a virtual space by combining a device with a rotation center portion that rotatably supports a tablet and a VR head-mounted device with a built-in sensor. .

Figure 1 is a diagram when the experiencer is fixed on the tablet in the high-altitude bouncing virtual experience device of the present invention.

In FIG. 1 , a virtual experience device 1 is composed of an appliance 10 and a VR head-mounted device 11 .

The device 10 consists of a flat plate 100 that can fix the experiencer 2 in a prone position, a strap 101 that fixes both ankles of the experiencer 2 on the flat plate 100 to the flat plate 100, a rotation support portion 102 that rotatably supports the flat plate 100, and The instrument main body 103 has the rotation support part 102 fixed and holds the flat plate 100 stably.

The instrument body 103 has an inverted V-shaped structure when viewed from the front, and is installed on the flat floor 3 . The reason why the instrument body 103 has an inverted V-shaped structure is that it is easier to transport the entire instrument body 103 by closing the top corners. The instrument body 103 may have any structure as long as it can support the flat plate 100 rotatably.

The VR head-mounted device 11 is provided with a positioning sensor 110 composed of a plurality of cameras, a control unit 111, and a display 112 (see FIG. 7 ). The positioning sensor 110 is composed of a plurality of cameras arranged in a VR head-mounted device, for example. By processing the images captured by these cameras, the position (orientation on the three axes) of the VR head-mounted device 11 including the distance (height) between the floor 3 and the sensor 110 is detected. A gyro sensor can also be used as another example of the positioning sensor 110. Furthermore, it can also be composed of a well-known sensor such as an infrared sensor or an LED sensor. In the present invention, it suffices as long as it is a sensor that can detect at least the height on the Z-axis. In addition, it is expected that these sensors have the function of following (tracking) the position changes of the VR head-mounted device.

In Figure 1, the experiencer 2 is lying on the tablet 100, and his ankles are fixed to the tablet 100 by straps 101. This completes the preparation for the high-altitude bungee virtual experience. This state is the first state in which the head of the experiencer 2 is located higher than the feet. In addition, high-altitude bouncing image software is pre-installed on the VR head-mounted device 11, and the software is also in an action state. This high-altitude bouncing image software is composed of a stop image that represents the surrounding image before falling, and a falling image when falling. In the first state of FIG. 1 , a stop image is displayed on the display 112 of the VR head-mounted device 11 . The stopped image is the image around the VR head-mounted device 11 before falling. Since the VR head-mounted device 11 is equipped with a positioning sensor 110 with a tracking function, when the experiencer 2 lowers his head to look down, the image near the lowest position when jumping is displayed on the display in the VR head-mounted device 11 112. In addition, if the experiencer 2 turns his neck to observe left and right, the surrounding images will also change accordingly.

The flat plate 100 is slightly rotated forward from the state of FIG. 1 in the manner of FIG. 2 . For example, the assistant lifts the bottom of the tablet 100 upward to rotate the tablet 100 . In the absence of an assistant, if the experiencer moves his or her center of gravity forward, the tablet 100 will rotate from the state in Figure 1 to the manner in Figure 2 . At this time, it is the state of the actual high-altitude jumping experiencer just before jumping, and the display 112 displays the image of the lowest position in the state just before falling.

FIG. 2 shows the state before the distance between the positioning sensor 110 and the floor 3 becomes h1 in the high-altitude bouncing virtual experience device 1 when the tablet 100 is rotating. In other words, FIG. 2 shows a state in which the height of the VR head-mounted device 11 from the floor 3 becomes h1 + Δ.

The positioning sensor 110 provided in the VR head-mounted device 11 detects that the VR head-mounted device 11 is lowered by several ten centimeters during the change from the state of FIG. 1 to FIG. 2 . During this period, the image output from the high-altitude bouncing image software is a stop image, but due to tracking the position change of the VR head-mounted device 11 corresponding to the position change of the experiencer 2's head, it becomes a stop image corresponding to the position change. . In Figure 2, the stop image is an image looking down from the top of a tall building.

If the tablet 100 is further rotated from the state in FIG. 2 due to the movement of the center of gravity of the assistant or experiencer 2, the distance between the positioning sensor 110 and the floor 3 immediately becomes h1. This is the second state. When it reaches the second state as a trigger, the image of the high-altitude bouncing image software switches from the stop image to the falling image. Furthermore, the flat plate 100 is instantly rotated to the inverted state shown in FIG. 3 .

In this way, the tablet 100 slightly rotates forward from the first state (Fig. 1) and is about to fall (Fig. 2). If the tablet 100 further rotates from this state, the distance between the positioning sensor 110 and the floor 3 becomes h1. 2 state, it instantly becomes an inverted state (Fig. 3) and stops the rotation of the flat plate 100. The rotation time in Figures 2 to 3 is about 1 second (hereinafter referred to as 1 second).

As shown below, the high-altitude bouncing image software outputs a stop image from the first state in Figure 1 to the state in Figure 2. If the tablet 100 further rotates from Figure 2, the distance between the positioning sensor 110 and the floor 3 becomes h1 (Second state), it switches to the output of the falling image. Furthermore, it becomes an inverted state (Fig. 3) and continues to output falling images. The length of the falling image is approximately 4 seconds (hereinafter referred to as 4 seconds). Therefore, the experiencer 2 watches the falling image for a period of several seconds from the second state to the inverted state.

In this way, from the second state in which the distance between the self-positioning sensor 110 and the floor 3 becomes h1 until the tablet 100 further rotates and reaches the state in FIG. 3 , the experiencer 2 suddenly changes from the stopped image when looking down from the top of the tall building. See the image of the fall. In addition, during this period, the body of the experiencer 2 suddenly rotated 90 degrees and became an inverted state. The falling image remains in an inverted state for several seconds.

The important thing here is to display the falling image during the 1 second period when the experiencer 2 changes from the second state to the inverted state. The experiencer feels the falling through the falling image and the rotation of the tablet 100 during this 1 second period, so the feeling of falling is deeply impressed. Therefore, even if it later becomes an inverted state and stops rotating, only the falling image will be displayed, creating the illusion of continuing to fall. It is speculated that this illusion is caused by the cross-modal effect. Cross-modal effect refers to the phenomenon that one sensory information interferes with another sensory information (mechanism), and the sensory information itself changes. In this embodiment, it is considered that the cross-modal effect is used to modulate spatial cognition through the visual input of the VR head-mounted device 11, the sensory input of the gravity acceleration of the rotation of the tablet 100, the somatosensory input in the inverted state, etc. , thereby creating the illusion of continuous falling in the inverted state. In this embodiment, it can be said that the illusion caused by the cross-modal effect is utilized. With this, even if the rotation time is short, only 1 second, you can virtually experience a 4-second fall.

As shown above, by synchronizing the short-term (1 second) rotation of the tablet 100 with the display of the falling image at the beginning, the experiencer 2 can be deeply impressed by the falling feeling. Therefore, after that, only the falling image can be displayed. Experiencer 2 had the same illusion of falling as before. Therefore, by only rotating the tablet 100 for a short time, the experiencer 2 can experience a strong immersive feeling of falling that lasts longer than the rotation time.

In this embodiment, when the falling image reaches the lowest position, the VR head-mounted device 11 notifies the hand switch 113 that it is in the lowest position. The hand switch 113 vibrates at this time. In this way, the assistant can understand that the falling image is in the lowest position, and therefore rotate the tablet 100 in the opposite direction. At this time, the falling image switches to a floating image that returns to the top from the lowest position or floats near the lowest position. Through the floating image and the reverse rotation of the tablet 100, the experiencer 2 has the illusion of returning upward or floating due to negative acceleration near the lowest position.

Afterwards, the tablet 100 returns to the original position of FIG. 1 , and the experiencer 2 is released from the tablet 100 .

In this way, experiencer 2 can obtain the virtual experience of high-altitude bouncing. In this embodiment, since the body of the experiencer 2 is rotated in synchronization with the image of the high-altitude bouncing, the immersion when falling is greater. Therefore, the experiencer 2 can have a virtual experience that includes the same scary feeling as actual high-altitude jumping.

In addition, in FIGS. 1 to 3 , the air blower 114 is arranged in front of the virtual experience device 1 . The air blower 114 blows the wind when the experiencer 2 falls. The air blower 114 starts blowing air when the stop image is displayed, and stops blowing air when the falling image completely ends. Furthermore, as a modified example, the air supply volume is suddenly increased from the time when the display of the falling image starts. By controlling the air supply volume in this way, you can get closer to the actual feeling of high-altitude bouncing.

4 to 6 show images (image frames) that intercept the stop image and the falling image displayed on the display 112 in the VR head-mounted device 11 in the high-altitude bouncing image software.

Figure 4(A)…Image frame of the stopped image just before falling Figure 4(B)…image frame at t=0 just after the fall Figure 4(C)…image frame at t=1 just after the fall Figure 5(D)…image frame at t=2 just after the fall Figure 5(E)…image frame at t=3 just after the fall Figure 5(F)…image frame at t=4 just after the fall Figure 6(G)…image frame at t=5 just after the fall Figure 6(H)…image frame at t=6 just after the fall Figure 6(I)...image frame at t=7 just after the fall The falling image lasts for 4 seconds, but the above image frames during the fall are obtained by partially intercepting the falling image, and the image frames after t=7 are omitted. In fact, there are also image frames of the fall after t=7. In addition, the image frame of the stopped image in the state of Figure 1 and the image frame of the floating state after reaching the lowest position are also omitted.

As shown in Figure 1, the high-altitude bouncing image software is started after the experiencer 2 is fixed on the tablet 100. The high-altitude bouncing image software outputs a stopped image including the image frame in Figure 4(A) just before falling in Figure 2. The stop image is an image of the person looking down from the roof of a tall building just before the fall. In fact, since the image frame in Figure 4(A) is the field of view direction of the experiencer 2 intercepted from the 3D display of the surrounding image, therefore if the experiencer 2 rotates his neck up, down, left, and right, the corresponding field of view direction will be displayed. animated images.

The tablet 100 starts to rotate from the state in Figure 2. When the positioning sensor 110 detects that the distance between the VR head-mounted device 11 and the floor 3 becomes the height h1, the image switches from the stop image to the falling image. The falling image becomes a continuously changing animated image at t=0, t=1, t=2... and is displayed on the display 112 .

The image frames from t=0 to t=7 are the image frames when the experiencer 2 jumped from the roof of a high-rise building and fell to the ground. By displaying the continuous images of the fall on the display 112 in the VR head-mounted device 11 and the body rotation of the experiencer 2, the experiencer 2 obtains a strong immersive feeling of falling.

The falling image further continues after the plate 100 stops rotating and becomes the inverted state shown in FIG. 3 . However, the experiencer 2 felt the fall through the falling image after t=0 and the rotation of the tablet 100, so the feeling of falling was deeply impressed. Therefore, even if the rotation of the flat plate 100 is stopped, the illusion of falling will continue to be generated by the above-mentioned cross-modal effect by utilizing subsequent falling images. With this, even if the rotation time is short, only 1 second, you can still virtually experience a 4-second fall.

If the falling image is the image when it reaches the lowest position, the control unit 111 vibrates the switch 113 on the hand. At this time, the assistant makes the tablet 100 rotate in the opposite direction because he understands the vibration of the switch on his hand. At this time, the high-altitude bouncing image software switches from the falling image to the floating image that moves up and down near the lowest position and floats. Through the floating image and the reverse rotation of the tablet 100, the experiencer 2 has the illusion of returning upward or floating due to negative acceleration near the lowest position.

FIG. 7 shows an electrical configuration diagram of the virtual experience device 1.

The VR head-mounted device 11 includes a positioning sensor 110 composed of a plurality of cameras, a control unit 111, and a display 112 capable of 3D display. Furthermore, the VR head-mounted device 11 is connected to the hand switch 113 and the air blower 114 via Bluetooth (registered trademark). The control unit 111 is provided with a memory (not shown), and the high-altitude bouncing image software is pre-installed in the memory.

FIG. 8 is a flowchart showing the operation of the virtual experience device 1.

This flowchart is executed by the control unit 111 provided in the VR head-mounted device 11 .

The VR head-mounted device 11 is started by turning on the power switch on the main body. After activation, the high-altitude bouncing image software (ST1, 2) is started using the hand switch 113 connected to the control unit 111 via Bluetooth (registered trademark). The image displayed on the display 112 at this time is a stopped image.

After that, the assistant lifts the bottom of the tablet 100 located at the feet of the experiencer 2 upward. Alternatively, the experiencer 2 moves his or her center of gravity forward (in the direction of the head) by slightly moving forward, and if necessary, lifts both hands upward. In this way, the tablet 100 starts to rotate with the rotation support part 102 as the center, and the rotation of the tablet 100 is temporarily stopped in a state where the head is slightly lower than the horizontal position (FIG. 2). At this time, the distance between the VR head-mounted device 11 and the floor 3 does not reach the predetermined height h1. As shown in FIG. 4(A) , the display 112 of the VR head-mounted device 11 outputs a stopped image looking down from the roof of a high-rise building, which is the state immediately before falling.

If the tablet 100 is further rotated from FIG. 2 , the positioning sensor 110 detects that the distance between the VR head-mounted device 11 and the floor 3 becomes the predetermined height h1 and the second state is entered (ST3). In this way, the image switches from the stopping image to the falling image. The tablet 100 rotates from the second state to the inverted state of FIG. 3 . This time is 1 second. Since the falling image lasts for 4 seconds, the falling image is temporarily displayed on the display 112 even if it becomes the inverted state of FIG. 3 .

When the falling image becomes the lowest position image (ST5), the hand switch 113 is vibrated. The assistant realizes that the falling image becomes the image at the lowest position, and at that point, the assistant rotates the flat plate 100 in the opposite direction. In this way, the image switches from a falling image to a floating image (ST7). Experiencer 2 had the illusion of returning to the top or floating due to negative acceleration near the lowest position.

End all actions at the stage when the floating image ends.

In addition, in this embodiment, the air blower 114 connected via Bluetooth (registered trademark) is arranged on the floor 3 in front of the virtual experience device 1 (left side in FIGS. 1 to 3 ). The control unit 111 starts air blowing from the air blower 114 when entering ST1. Stop the air supply when entering ST5 or ending ST7. By synchronizing the air supply in this way, the falling feeling of high-altitude bouncing can be further enhanced. It is believed that the feeling of wind pressure caused by the supply air contributes to the above-mentioned cross-modal effect. As a modified example, the air supply volume in ST4 can be made larger than the air supply volume in ST1. As a result, the wind becomes stronger when falling (Figure 2 → Figure 3) compared to when it stops (Figures 1 and 2), and the feeling of falling becomes greater. In addition, in ST4, the air supply volume can be increased according to the passage of time, thereby further increasing the feeling of falling.

According to the above actions, the tablet 100 is rotated from the state in FIG. 1 to the state in FIG. 3, and the stop image and falling image during high-altitude bouncing are simultaneously displayed on the display 112 in the VR head-mounted device 11, Experiencer 2 can experience actual high-altitude bouncing in the virtual space with a strong sense of immersion.

As another embodiment, the falling image software of a roller coaster can also be installed instead of the high-altitude bouncing image software. In the roller coaster falling video software, just like the high-altitude bouncing video software, you can also experience the rapid descent of the actual roller coaster with a strong sense of immersion.

In addition, in this embodiment, the instrument body 103 has an inverted V-shaped structure, but the shape does not need to be an inverted V-shape as long as the flat plate 100 and the rotation support part 102 can be stably held. In addition, as long as the floor 3 can hold the appliance body 103 substantially horizontally, it can be combined with a base or a track that rotates the appliance body 103 left and right or moves forward and backward. With this structure, by moving the instrument body 103 forward or rotating left and right in the stopped state, a virtual experience of high-altitude jumping that is closer to reality can be performed.

In addition, the rotation of the flat plate 100 can also be performed automatically using a motor instead of manually. Furthermore, in this embodiment, the time for rotating the flat panel 100 to Figures 2 to 3 is set to 1 second, and the output time of the falling image is set to 4 seconds, but the time is not limited. This time is appropriately set according to the type of experiencer 2 (adult or child), the size and structure of the device body 103, the characteristics of the imaging software (type of high-altitude bouncing or roller coaster, or when falling). These settings can also be performed through hand switches or switches of the VR head-mounted device 11.

1:Virtual experience device 2: Experiencer 3:Floor 10: Utensils 11: VR headsets 100: Tablet 101: straps 102: Rotation support part 103: Appliance body 110: Positioning sensor 111:Control Department 112:Display 113:Hand switch 114: Blower ST1~ST7: steps

[Fig. 1] It is a diagram when the experiencer is fixed on the tablet in the high-altitude bouncing virtual experience device of the present invention. [Fig. 2] is a diagram showing a state in which the tablet is rotating in the high-altitude bouncing virtual experience device of the present invention. [Fig. 3] is a diagram showing the state when the experiencer becomes an inverted state in the high-altitude bouncing virtual experience device of the present invention. [Figure 4 (A) ~ (C)] are intercepted images of the stop image and the falling image of the high-altitude bouncing virtual experience device of the present invention. [Figure 5 (D) ~ (F)] are intercepted images of falling images of the high-altitude bouncing virtual experience device of the present invention. [Figure 6 (G) ~ (I)] are intercepted images of the falling image of the high-altitude bouncing virtual experience device of the present invention. [Fig. 7] shows an electrical configuration diagram of the virtual experience device 1. [Fig. 8] is a flowchart showing the operation of the virtual experience device 1.

1:Virtual experience device

2: Experiencer

3:Floor

10: Utensils

11: VR headsets

100: Tablet

101: straps

102: Rotation support part

103: Appliance body

114: Blower

Claims (4)

A virtual experience device that can experience the feeling of falling, which has: The tablet, which holds the experiencer in place; An instrument formed with a rotation support portion that rotatably supports the flat plate so that the flat plate can be rotated from a first state in which the head of the experiencer is positioned above the feet to an inverted state in which the body of the experiencer is inverted. ;and VR head-mounted equipment, which is installed on the head of the above-mentioned experiencer; The above-mentioned VR headsets have: A sensor that detects the second state when the above-mentioned appliance is rotated from the above-mentioned first state and the height from the floor surface on which the above-mentioned appliance is installed becomes below a predetermined height; A monitor that displays images in a virtual space; and Image software including a stop image displayed on the display in the first state, and a falling image displayed on the display after entering the second state. A virtual experience device capable of experiencing the feeling of falling as claimed in claim 1, wherein The above-mentioned falling image includes the image of the above-mentioned experiencer's body still falling after becoming the above-mentioned inverted state. A virtual experience device capable of experiencing the feeling of falling as claimed in claim 2, wherein The above-mentioned VR head-mounted device reports to the outside that it is in the lowest position when the above-mentioned falling image reaches the lowest position. A virtual experience device that can experience the feeling of falling according to any one of claims 1 to 3, wherein The above-mentioned stop image and the above-mentioned falling image are composed of images during high-altitude bouncing.