TWM555001U - System, wearable device and flying device for providing semi-holographic images - Google Patents

Abstract

Present disclosure relates to a system, a wearable device and a flying device for displaying semi-holographic images. The system includes a wearable device and a flying device. The wearable device, operated in a first space, is configured to display a simulated scenario. The flying device operated in a second space is in communication with the wearable device. The flying device is configured to obtain image of a physical object from a first coordinate in the second space, wherein the first coordinate is corresponding to a first position in the first space. When the wearable device moves from the first position to a second position in the first space, the flying device moves from the first coordinate to a second coordinate in the second space, wherein the second space is corresponding to the second position. During the flying device moves from the first coordinate to the second coordinate, the flying device keeps obtaining images of a physical object in the second space, and the wearable device displays a virtual object corresponding to the physical object based on the images.

Description

Holographic image display system, providing holographic images Flying vehicle and wearing device

The present invention relates to an image display system, and more particularly to a holographic image display system.

The effect of a general holographic projection is represented by a planar image of a multi-faceted reflective material. However, the projection object that such a technique can display is limited in size, and the projection image cannot be viewed at certain angles. Another technique that uses holographic film refraction to create a holographic projection effect on the stage requires a considerable amount of location to be set up, and the projected image must be better displayed in a dark environment. In addition, the technology for providing holographic projection effects through a wide range of light field shooting is not only limited in field, but also the amount of information transmission and the cost of hardware are very high, making it difficult to popularize. Therefore, the above techniques are difficult to realize the holographic image display and at the same time create an interactive communication effect with the holographic image for the user.

An embodiment of the present invention relates to a holographic image display a system comprising a wearable device for displaying a virtual environment scene; a flight vehicle coupled to the wearable device for capturing a physical object and displaying a virtual environment scene on the wearable device; wherein when the wear device is in the first space When moving from the first location to the second location, the flight carrier moves to the second location corresponding to the first location in the first space in the second space.

An embodiment of the present invention relates to a flight vehicle for providing a holographic image, which is adapted to be coupled to a wearable device by a network server, comprising: a flight assembly; an optical detector for photographing a physical object; a processor electrically coupled to the optical detector and the flight assembly for generating surface information of the object corresponding to the physical object captured by the optical detector; and the first signal transceiver electrically coupled to the first processor And transmitting the object surface information to the network server, and receiving the movement instruction from the network server; wherein the first processor controls the flight assembly according to the movement instruction.

An embodiment of the present invention relates to a wearable device for providing a holographic image, which is adapted to be coupled to a flight vehicle by a network server, wherein the flying wearer is used to generate object surface information, including: a display interface for displaying a virtual environment scene; a motion detector for detecting movement of the wearable device in the first space; and a second processor electrically coupled to the display interface and the motion detector for detecting the motion detector The mobile device generates mobile information; the second signal transceiver is electrically coupled to the second processor for transmitting mobile information to the network server, and is further configured to receive the mobile wear device by the network server. The transmitted object surface information; wherein the second processor is further configured to display the virtual object in the virtual environment scene according to the object surface information control display interface.

Therefore, according to the technical content of the case, we can improve the conventional skills. The problem that the operation is limited by space and the arrangement is not easy, and the conventional technology cannot improve the interaction between the user and the holographic image.

100‧‧‧ flying vehicle

101‧‧‧ Optical detector

102‧‧‧Flight assembly

103, 203‧‧‧ processor

104, 204‧‧‧ Signal Transceiver

200‧‧‧Wearing device

201‧‧‧Display interface

202‧‧‧ motion detector

300‧‧‧Web server

A‧‧‧First space

B‧‧‧Second space

F1‧‧‧first flight vehicle

F2‧‧‧Second flight vehicle

G1‧‧‧First wearing device

G2‧‧‧Second wearable device

U1, U2‧‧‧ users

PN1‧‧‧ first place

PN2‧‧‧Second place

PN3‧‧‧ third place

CN1‧‧‧ first coordinate

CN2‧‧‧second coordinate

CN3‧‧‧ third coordinate

VU1‧‧‧The first avatar

VU2‧‧‧ second avatar

D1, D3, D5, D8‧‧‧ shooting direction

D2, D4, D6, D7‧‧‧ pointing directions

1 is a schematic diagram of a flight vehicle providing a hologram-like image according to some embodiments of the present invention; and FIG. 2 is a schematic diagram of a flight vehicle providing a hologram-like image according to some embodiments of the present invention; The figure is a schematic diagram of a wearable device for providing a hologram-like image according to some embodiments of the present invention; and FIG. 4 is a schematic view of a wearable device for providing a hologram-like image according to some embodiments of the present invention; A schematic diagram of a holographic image display system according to some embodiments of the present invention; FIG. 6 is a schematic diagram of a holographic image display system according to some embodiments of the present invention; FIG. 7 is a schematic diagram of a portion of the present disclosure. A schematic diagram of a holographic image display system; and FIG. 8 is a schematic diagram of a holographic image display system according to some embodiments of the present invention.

About the "first", "second",... used in this article... Etc., not specifically to refer to the order or order, nor to limit the present invention, but merely to distinguish between elements or operations described in the same technical terms.

As used herein, "coupled" or "connected" may mean that two or more elements or devices are in direct physical contact with each other, or indirectly in physical contact with each other, or two or more elements or devices. Operation or action.

Hereinafter, a holographic image display system disclosed in the present disclosure, a flight carrier providing a hologram-like image, and a wearable device providing a hologram-like image will be described by using a schematic diagram of a holographic image display system.

Please refer to Figure 1. 1 is a schematic diagram of a flight vehicle providing a hologram-like image according to some embodiments of the present invention. In an embodiment of the present invention, the holographic image display system includes a flying vehicle 100. As shown in the figure, the flying vehicle 100 is a four-rotor aircraft, but the present invention is not limited thereto, and various types can be hovered and suspended. The aircraft parked in the air can be used as the flight vehicle 100 of the present case. The flying vehicle 100 has an optical detector 101, which is a camera having a function of acquiring depth information, such as a camera equipped with a dual lens to detect depth information. It should be understood that the flight vehicle 100 illustrated in FIG. 1 is only one possibility of implementing the present invention. In other embodiments of the present invention, the flying vehicle 100 can be used to carry the running device, and the mobile device has the function of acquiring the depth information function. Thus, the flight vehicle 100 carrying such a mobile device can achieve the same effect as the flight vehicle 100 of FIG.

Please refer to Figure 2. 2 is a schematic diagram of a flight carrier providing a hologram-like image according to some embodiments of the present invention. In an embodiment of the present disclosure, the holographic image display system includes a flying vehicle 100. As shown in Figure 2 As shown, the flight vehicle 100 includes an optical detector 101, a flight assembly 102, a processor 103, and a signal transceiver 104. The appearance of the flying carrier 100 can be referred to as the embodiment of Fig. 1 of the present invention, which is a quadrotor. The optical detector 101 is a camera for capturing images with depth information, and its configuration can be set on one side of the flying vehicle 100 with reference to the embodiment shown in FIG. 1 of the present invention. The processor 103 is electrically coupled to the optical detector 101 and the flight assembly 102. The processor 103 can be used to receive and process the image of the depth of field information captured by the optical detector 101. The flight assembly 102 is controlled by the processor 103 to hover, move or rotate the flight carrier 100 in the air. For the configuration of the flight assembly 102 in this embodiment, reference may be made to the embodiment of FIG. 1 of the present invention. For example, the rotors provided in the flight vehicle 100 shown in FIG. 1 are all part of the flight assembly 102. The signal transceiver 104 can be a wireless network signal transceiver or a Bluetooth signal transceiver, which is also electrically coupled to the processor 103. The processor 103 can receive or send information through the signal transceiver 104.

Please refer to Figure 3. FIG. 3 is a schematic diagram of a wearable device for providing a hologram-like image according to some embodiments of the present invention. In an embodiment of the present disclosure, the wearable device 200 is a Helmet Mounted Display (HMD), but the present invention is not limited thereto, and various virtual environments (such as augmented reality and virtual reality) can be provided. The wearable device displayed in the real world or in the mixed reality can be the wearable device 200 of the present case. The wearable device 200 has a display interface 201. The display interface 201 is disposed on the optical lens in the figure. When the user wears the wearable device 200, the wearable device 200 can view the virtual image to be presented by the wearable device 200. Optical lens is a lens with a certain transparency, the ring in the real world The ambient light can also penetrate the optical lens of the display interface 201, so that the user can simultaneously view the scene in the real world.

Please refer to FIG. 4, which is a schematic diagram of a wearable device for providing holographic images according to some embodiments of the present invention. In an embodiment of the present disclosure, the holographic image display system includes a wearable device 200. As shown in the figure, the wearable device 200 includes a display interface 201, a motion detector 202, a processor 203, and a signal transceiver 204. The display interface 201 is used to display a virtual image, and the appearance thereof can be set on the optical mirror surface of the wearable device 200 with reference to the embodiment of FIG. 3 of the present invention. The motion detector 202 is disposed inside the wearable device 200 for detecting the movement of the wearable device 200. For example, it can detect information such as movement, rotation, or magnetic force change of the wearable device 200 along the three-dimensional axis. The processor 203 is electrically coupled to the display interface 201 and the motion detector 202 for receiving the movement information about the wearable device 200 acquired by the motion detector 202. The processor 203 further controls the display interface 201 to display the virtual image. The signal transceiver 204 can be a wireless network signal transceiver or a Bluetooth signal transceiver. The signal transceiver 204 is electrically coupled to the processor 203. Therefore, the processor 203 can receive or send information through the signal transceiver 204.

Please refer to Figure 5. Figure 5 is a schematic diagram of a holographic image display system according to some embodiments of the present invention. As shown in the figure, the background of the embodiment includes two distinct spaces, which are respectively the first space A shown on the left side of the figure and the second space B shown on the right side of the figure. The user U1 is in the first space A, which is equipped with the first wearing device G1 and located at the first location PN1, and the user U2 is in the second space B, which is equipped with the second wearing device G2 and located at the second location PN2 . In this embodiment, the first wearing device G1 The appearance, internal structure, and basic operation of the second wearable device G2 are the same as those of the wearable device 200 shown in Figures 3 and 4 of the present invention. Therefore, referring to the embodiments of Figures 3 and 4 of the present invention, This will not be repeated here. In the present embodiment, the first flying vehicle F1 operates in the first space A, and the second flying vehicle F2 operates in the second space B. The appearance, internal structure and basic operation mode of the first flight vehicle F1 and the second flight vehicle F2 of the present embodiment are the same as those of the flight vehicle 100 shown in Figures 1 and 2 of the present case, so please refer to The embodiments of the first and second figures of the present invention will not be described herein.

In this embodiment, the first wearing device G1, the second wearing device G2, the first flying carrier F1 and the second flying carrier F2 are all communicatively coupled with the network server 300, the first flying vehicle F1 and the first The second flying vehicle F2 transmits information to or receives information from the network server 300 through the signal transceiver 104 as shown in FIG. 1 or FIG. 2, and the first wearing device G1 and the second wearing device The device G2 transmits information to or receives information from the network server 300 through the signal transceiver 204 as shown in FIG. 3 or FIG.

Referring to the left half of FIG. 5, in the present embodiment, when the first flying vehicle F1 is operated, it detects the environment of the first space A through the optical detector 101 as shown in FIG. 1 or 2. The configuration, for example, the room shape, the decoration, the object or the character of the first space A, and the like, and accordingly generates spatial information about the first space A. The first flying vehicle F1 has a multi-directional degree of freedom positioning function, such as Six Degrees of Freedom or Nine Degrees of Freedom, so the processor 103 of the first flying vehicle F1 can Use synchronous positioning and map construction (Simultaneous The localization and mapping (SLAM) algorithm computes spatial information to assign a plurality of coordinates to each location in the first space A, which may be a three-dimensional coordinate. When the first flight vehicle F1 completes the coordinate assignment, it will be able to move according to each coordinate in the first space A as a reference point. As shown in the left and right halves of FIG. 5, the first flying vehicle F1 is hovered over the second coordinate CN2, and the second coordinate CN2 is corresponding to the second wearing device G2 of the second space B. The second location PN2, and its shooting direction D1 hovering in the air also corresponds to the pointing direction D2 of the second wearing device G2. The first flying vehicle F1 can capture a frontal image of the user U1 at its angle.

Please continue to refer to the right half of FIG. 5. Similarly, in the present embodiment, when the second flying vehicle F2 is operated, it will also be detected by the optical detector 101 as shown in FIG. 1 or 2. The environment configuration of the second space B, and accordingly generates spatial information about the second space B. The second flight vehicle F2 also has a multi-directional degree of freedom (for example, six-way or nine-way degrees of freedom) positioning function, and the processor 103 can also use the synchronous positioning and map construction algorithm to calculate spatial information, and the second space B is used. Each location assigns a plurality of coordinates. When the second flight vehicle F2 completes the coordinate assignment, it will be able to move according to each coordinate in the second space B as a reference point. As shown in the left half and the right half of FIG. 5, the second flying carrier F2 is hovered over the first coordinate CN1, and the first coordinate CN1 is corresponding to the first wearing device G1 of the first space A. The first location PN1 is located, and the shooting direction D3 hovering in the air also corresponds to the pointing direction D4 of the first wearing device G1. The second flying vehicle F2 can capture a frontal image of the user U2 at its angle.

Please refer to Figure 6. Figure 6 is a partial embodiment according to the present invention. A schematic diagram of a holographic image display system. The background of this embodiment continues the embodiment of the aforementioned fifth embodiment. Referring to the left half of FIG. 6, in the embodiment, when the user U1 is equipped with the first wearing device G1, the first wearing device G1 is used to display the first virtual environment scene for viewing by the user U1. Referring to the embodiment of FIG. 5, in this embodiment, since the second flying carrier F2 captures the front image of the user U2 toward the first coordinate CN1 in the second space B, the front image of the user U2 After being processed by the processor 103 of the second flight vehicle F2, the second flight vehicle F2 can transmit the front image of the user U2 to the network server 300 through the signal transceiver 104 as shown in FIG. 1 or FIG. News. In this way, the first wearable device G1 can obtain the front image information of the user U2 from the network server 300, and display the front image information of the user U2 in the first virtual environment scene, and display it as the second virtual character VU2. The second virtual character VU2 viewed by the user U1 on the display interface 201 of the first wearable device G1 has an appearance corresponding to the user U2, since the front view of the user U2 has the depth information. Positive image. In addition, in this embodiment, the height of the second flying vehicle F2 flying or hovering in the second space B corresponds to the height of the user U1 equipping the first wearing device G1 in the first space A, and thus, A wearable device G1 can display the first virtual environment scene to the user U1 at the correct height.

Please refer to the right half of FIG. 6. In this embodiment, when the user U2 is equipped with the second wearing device G2, the first wearing device G2 is used to display the second virtual environment scene for the user U2 to view. Please refer to the embodiment of FIG. 5 again. In this embodiment, the first flying vehicle F1 is photographed by the second coordinate CN2 in the first space A to obtain the front image of the user U1. After the front image of the first flying vehicle F1 is processed by the processor 103 of the first flying vehicle F1, the first flying vehicle F1 can transmit the front image information of the user U1 to the network server 300 through the signal transceiver 104, and the second wearing device G2 can obtain the front image information of the user U1 from the network server 300, and display the front image information of the user U1 in the second virtual environment scene, and display it as the first virtual character VU1, wherein the first virtual character VU1 The appearance of the presentation corresponds to the stereo front image of the user U1. Similarly, in the present embodiment, the height of the first flying vehicle F1 flying or hovering in the first space A corresponds to the height at which the user U2 equips the second wearing device G2 in the second space B, and thus, The second wearing device G2 can display the second virtual environment scene to the user U2 at the correct height.

Please refer to the embodiments of Figures 5 and 6 at the same time. In this embodiment, the first wearing device G1 equipped by the user U1 can not only display the first virtual scene through the display interface 201, but also collects the sound in the first space A through a microphone (not shown), especially the user. The sound emitted by U1, the information corresponding to the sound in the first space A will be transmitted to the network server 300 via the processor 203 and the signal transceiver 204 of the first wearing device G1, and the second wear in the second space B. The device G2 can receive the information corresponding to the sound in the first space A through the signal transceiver 204, and then through the processor 203 of the second wearing device G2, and then through the broadcaster of the second wearing device G2 (not shown) The audio corresponding to the first space A is played, so that the user U2 can not only view the first virtual character VU1 in the second virtual scene, but also can hear the sound emitted by the user U1.

In this embodiment, the second wearing device equipped by the user U2 G2 can also collect the sound in the second space B through a microphone (not shown), especially the sound emitted by the user U2, and the information corresponding to the sound in the second space B will be transmitted to the network servo via the second wearing device G2. The first wearing device G1 in the first space A can receive the information corresponding to the sound in the second space B, and then processed by the processor 203 of the first wearing device G1, via the first wearing device G1. The broadcaster (not shown) plays the audio corresponding to the second space B. Thus, the user U1 can view the second virtual character VU2 in the first virtual scene, and can also hear the sound emitted by the user U2. The embodiment of the present case achieves an effect similar to the direct interaction with the holographic image of the character. In addition, it should be understood that the microphone and the sounder of the present invention are not limited to be disposed on the first wearing device G1 or the second wearing device G2, and may be disposed on the first flying vehicle F1 or the second flying carrier F2, or may be independent. Between the first space A and the second space B, the microphone can collect the sound in the first space A or the second space B, and the audio player can play the audio in the first space A or the second space B correspondingly. , are the scope of this case.

Please also refer to Figures 7 and 8. 7 and 8 are schematic views of a holographic image display system according to some embodiments of the present invention. The background of this embodiment is to continue the embodiments of Figures 5 and 6 above. Referring to the left half of FIG. 5 and FIG. 7 simultaneously, in the present embodiment, the user U1 equipped with the first wearing device G1 is moved from the first location PN1 in the first space A to the third location PN3. The first wearable device G1 also has a multi-directional degree of freedom (for example, six-way or nine-way degree of freedom) positioning function, and can detect the moving path of the user U1 through the motion detector 202 as shown in FIG. The information corresponding to the movement path of the user U1 is transmitted to the network server 300 via the processor 203 and the signal transceiver 204 of the first wearing device G1. In this way, the second flight vehicle F2 can acquire the moving path of the user U1 from the network server 300, and the processor 103 of the second flying vehicle F2 can control the flight assembly 102 according to the user U1 in the first space A. The movement path in the movement. As shown in the right half of FIG. 7, in the present embodiment, the second flying vehicle F2 in the second space B moves the moving path corresponding to the user U1 in the first space A, and the second flying vehicle F2 will fly from the first coordinate CN1 corresponding to the first location PN1 to the third coordinate CN3 corresponding to the third location PN3.

In this embodiment, since the photographing direction D5 of the optical detector 201 of the second flying vehicle F2 corresponds to the pointing direction D6 of the first wearing device G1, during the moving process, if the user U1 moves the head to try to track, for example, At the location of the second avatar VU2 shown in FIG. 6, the first wearing device G1 can detect the head rotation angle of the user U1 through the motion detector 202, and the information corresponding to the rotation angle of the head of the user U1 will pass through the A processor 203 and a signal transceiver 204 of a wearable device G1 are sent to the network server 300. In this way, the second flight vehicle F2 can obtain the head rotation angle of the user U1 from the network server 300, and the processor 103 of the second flight vehicle F2 can control the flight assembly 102 to make the second flight vehicle F2. Rotating so that the photographing direction D5 of the optical detector 201 of the second flying vehicle F2 continues to correspond to the pointing direction D6 of the first wearing device G1.

As shown in the right half of Fig. 7, in the present embodiment, the second flight vehicle F2 is in the process of moving from the first coordinate CN1 to the third coordinate CN3, and the second flight carrier F2 is simultaneously used. U1 head rotation angle The degree rotates along the central axis of the second flight carrier F2. In this way, when the second flying vehicle F2 moves in the second space B, it can rotate simultaneously so that the shooting direction D5 of the optical detector 101 can face the pointing direction D6 of the first wearing device G1, so that the second The flying vehicle F2 can acquire an image of the user U1 wishing to view the angle in the second space B. During this process, the optical detector 101 of the second flight carrier F2 will continuously obtain the front or side image of the user U2 in the second space B through the optical detector 101, and the front side of the user U2 or The silhouette is transmitted to the web server 300.

In the anterior segment, the first wearable device G1 will receive the front or side image of the user U2 through the signal transceiver 204 as shown in FIG. 4, and the processor 203 of the first wearable device G1 will be based on the front or side image of the user U2. Corresponding avatar information is generated, and the second avatar VU2 corresponding to the user U2 is displayed in the second virtual environment scene through the display interface 201 of the first wearing device G1, so that the user U1 can view the second virtuality from the display interface 201. A stereoscopic image of the front or side of the character VU2, as shown in the left half of Fig. 8. In this way, the second flight carrier F2 moves or rotates in the second space B, and the optical detector 101 of the second flight carrier F2 plays the role of the user U1, regardless of the user U1. How to move or rotate the head in the space A, the second flying vehicle F2 also moves and rotates in the second space B, so that the optical detector 101 can point to the angle corresponding to the line of sight of the user U1 and continuously acquire the user. U2 is a real-time image in the second space B, and the first wearing device G1 can display the second virtual character VU2 corresponding to the user U2 in the display interface 201. In this way, the first wearing device G1 can present the effect of the holographic image like the user U2 to the user U1.

Referring again to the right half of FIG. 7, in the present embodiment, the user U2 is equipped with the second wearing device G2, and the pointing direction of the second wearing device G2 is D7. As described in the foregoing paragraph, since the user U1 equipped with the first wearing device G1 is moved from the first point PN1 in the first space A to the third point PN3, the second flying vehicle F2 in the second space B corresponds to The ground is moved by the first coordinate CN1 of the second space B to the third coordinate CN3. Referring to the right half of FIG. 6 and FIG. 8 together, from the angle viewed by the user U2 through the display interface 201 of the second wearing device G2, the first virtual character VU1 corresponding to the user U1 will be in the second virtual scene. Corresponding to the movement path of the second flight vehicle F2, according to the general usage habit, the user U2 will rotate its head to track the movement of the first avatar VU1, as shown in the right half of FIG. 7, due to the second The wearable device G2 also has a multi-directional degree of freedom (for example, a six-way or nine-way degree of freedom) positioning function, and the motion detector 202 in the second wearing device G2 detects the head rotation angle of the user U2, corresponding to the user U2. Information about the angle of rotation of the head will be processed by the processor 203 of the second wearable device G2 and transmitted to the network server 300 via the signal transceiver 204 of the second wearable device G2.

In the upper section, as shown in the left half of Fig. 7, the first flight vehicle F1 in the first space A will receive information corresponding to the rotation angle of the head of the user U2 through its signal transceiver, the first flight vehicle F1 The processor 103 can control the flight assembly 102 to rotate the first flight carrier F1 along the central axis thereof according to the head rotation angle of the user U2, so that the imaging direction D8 of the optical detector 201 of the first flight carrier F1 is Corresponding to the pointing direction D7 of the second wearing device G2. Thus, although the user U2 does not move in the second space B, but only rotates its head, the first flying vehicle F1 located in the first space A still roots. Rotate according to the head rotation angle of the user U2. Thus, by the rotation of the first flying vehicle F1 in the first space A, the optical detector 101 of the first flying vehicle F1 plays the role similar to the eyes of the user U2, regardless of the user U2 in the second space. How to rotate the head in B, the first flying vehicle F1 will also rotate correspondingly in the first space A, so that the optical detector 101 can point to the angle corresponding to the line of sight of the user U2 and continuously acquire the user U1 in the first space. The instant image in A, and the second wearing device G2 can display the first avatar VU1 corresponding to the user U1 in the display interface 201. In this way, the second wearing device G2 can present the effect of the holographic image like the user U1 to the user U2.

In an embodiment, the first wearing device G1 and the second wearing device G2 of the present invention can also detect the height changes of the users U1 and U2 through the motion detector 202, and transmit information corresponding to the height change to the network. The server 300 is configured such that the corresponding first flight vehicle F1 and the second flight vehicle F2 can rise or fall corresponding to the height changes of the users U1, U2 to make the first flight vehicle F1 and the second flight vehicle F2 The optical detector 101 can accurately correspond to the viewing angle height of the user U1, U2 in another space. As such, the first wearing device G1 and the second wearing device G2 can provide the better first virtual character VU1 and the second virtual character VU2 in the first virtual scene and the second virtual scene.

Although the present invention is disclosed in the above embodiments, it is not intended to limit the present invention. Anyone skilled in the art can make various changes and refinements without departing from the spirit and scope of the present invention. Therefore, the scope of protection of this case is attached. The scope of the patent application is subject to change.

A‧‧‧First space

B‧‧‧Second space

F1‧‧‧first flight vehicle

F2‧‧‧Second flight vehicle

G1‧‧‧First wearing device

G2‧‧‧Second wearable device

U1, U2‧‧‧ users

PN1‧‧‧ first place

PN2‧‧‧Second place

PN3‧‧‧ third place

CN1‧‧‧ first coordinate

CN2‧‧‧second coordinate

CN3‧‧‧ third coordinate

D5, D8‧‧‧ shooting direction

D6, D7‧‧‧ pointing direction

300‧‧‧Web server

Claims (10)

A holographic image display system comprising: a wearable device for displaying a virtual environment scene; a flight vehicle coupled to the wearable device for capturing a physical object and displaying the physical object on the wearable device a virtual environment scene; wherein when the wearing device moves from a first location to a second location in a first space, the flight carrier is in a second space relative to a first location in the first space Move to a second position. The system of claim 1, further comprising: a broadcast device disposed in the second space and communicatively coupled to the wearable device for playing an audio received by the wearable device in the first space. The system of claim 1, wherein the flying vehicle photographs the physical object at a rotation angle when the wearing device detects a rotation angle. The system of claim 1, wherein the height of the flight vehicle flying in the second space corresponds to a height of the wearable device in the first space. A flying vehicle for providing a holographic image is adapted to be communicatively coupled to a wearable device by a network server, comprising: a flight assembly; An optical detector for capturing a physical object; a first processor electrically coupled to the optical detector and the flight assembly for generating a physical object corresponding to the optical detector And the first signal transceiver is electrically coupled to the first processor for transmitting the surface information of the object to the network server, and receiving a movement instruction from the network server The first processor controls the flight assembly according to the movement instruction. The flight vehicle of claim 5, wherein the optical detector comprises a camera for acquiring depth information. The flight vehicle of claim 5, wherein the optical detector is a mobile device having a camera unit for acquiring depth information. The flight vehicle of claim 5, wherein the first signal transceiver comprises a wireless network signal transceiver. A wearable device for providing a holographic image, which is adapted to be coupled to a flying vehicle by a network server, wherein the flying wearing device is configured to generate an object surface information, comprising: a display interface for displaying a virtual a motion detector for detecting movement of the wearable device in a first space; a second processor electrically coupled to the display interface and the motion detector The second signal transceiver is electrically coupled to the second processor for transmitting the mobile information to the network servo. The second signal transceiver is electrically coupled to the second processor. The device is further configured to receive, by the network server, information about the surface of the object transmitted by the flying wearer; wherein the second processor is further configured to control the display interface in the virtual environment according to the surface information of the object Display a virtual object. The wearable device of claim 9, wherein the second signal transceiver comprises a wireless network signal transceiver.