TWM606880U - Remote reality and control system and multi-user remote reality and control system - Google Patents

Abstract

A remote reality and control system includes a head-mounted remote reality device and a reality photography device. The head-mounted remote reality device and the reality photography device are signal-connected to a network system; the head-mounted remote reality device has a display unit and a headset And status sensor signal; the status sensor is used to sense the user's head command, and the rotatable seat of the real-world camera device imitates the user's head command to rotate synchronously; the real-world camera device retransmits the activity site Real-time activities; the real-life camera device transmits the real-time video and real-time audio to the head-mounted remote real-world device through the network system, so that the display unit displays the real-time video, and controls the live audio to the headset. A multi-person remote reality and control system is also provided here. In this way, users in different regions can watch the same live event at the same time, and have a realistic sense of presence.

Description

Remote reality and control system and multi-person remote reality and control system

This creation is related to the remote reality system; in particular, it refers to a multi-person remote reality and control system that can be broadcast live.

With the development of globalization, exchanges around the world are becoming more and more active. For example, sports events, concerts, concerts, product launches and press conferences are fairly common exchange activities in today's society.

Due to frequent exchanges around the world, the spread of various diseases has gradually become rampant, posing a great threat to the lives and property of people all over the world. However, if it is for the purpose of avoiding the spread of infectious diseases to prohibit or reject cultural activities and exchanges among peoples of various countries, it will cause great harm to the development of human civilization.

In order to take into account the above-mentioned cultural exchanges and prevent the spread of infectious diseases, relevant event companies have launched online concerts, online concerts, and online sports event viewing services so that viewers can use electronic devices to watch the above-mentioned live broadcasts at any location.

However, when using electronic devices to watch the above-mentioned live broadcast, it often happens that the picture presented by the live camera lens is not at the angle or position that the viewer wants to watch, and even close-up shots that the viewer expects cannot be seen clearly due to insufficient lens magnification. .

It can be seen that traditional live broadcast services can no longer meet the viewing needs of viewers. Therefore, there is an urgent need for a novel remote reality and control system and a multi-person remote reality and control system that can be tailored to the preferences of viewers. Adjusted live broadcast service.

In view of this, the purpose of this creation is to provide a remote reality and control system and a multi-person remote reality and control system. The state sensor can sense the user's head commands through the network system The remote control makes the rotatable seat of the real-world photography device rotate synchronously imitating the user's head command. The real-life camera device transmits the real-time video and real-life audio to the head-mounted remote real-world device through the network system, so that the display unit displays the real-time video, and controls to send out the real-time audio to the headset. In this way, users in different regions can watch the same live event at the same time, and have a realistic sense of presence.

In order to achieve the above-mentioned purpose, a remote reality and control system provided by this creation includes a headset remote reality device and a reality photography device; the headset remote reality device is for users to wear, and The signal is connected to a network system; the head-mounted remote reality device includes a display unit, a pair of earphones, a status sensor and a first processing unit, wherein the display unit, the pair of earphones and the status sensor The signal is connected to the first processing unit; the state sensor is used for sensing the user's head command, and the state sensor generates a control signal through the first processing unit and sends the control signal through the network system Signal; the real-life photography device is set in an activity place, the real-life photography device is used to rebroadcast a real-life activity in the activity place, and the signal is connected to the network system and receives the control signal; the reality The photographing device includes a photographing unit, a first radio unit, a rotatable base and a second processing unit, wherein the camera unit and the first radio unit are arranged on the rotatable base, and the camera unit and the second processing unit A radio unit and the rotatable seat signal are connected to the second processing unit. When the real-world camera device receives the control signal, the second processing unit controls the rotatable seat to rotate synchronously to imitate the user's head command, At the same time, the camera unit and the first radio unit rebroadcast a live image and a live audio of the live event, and the live camera device transmits The network system transmits the live image and the live audio to the head-mounted remote reality device, so that the first processing unit controls the display unit to display the live image, and controls the pair of earphones to send out the live audio.

Another purpose of this creation is to provide a multi-person remote reality and control system including a plurality of head-mounted remote reality devices as described above and a plurality of reality camera devices as described above; each of the head-mounted remote reality devices The devices are individually worn by corresponding users; each of the head-mounted remote real-world devices includes a second radio unit signal connected to the first processing unit; the real-world photography devices are set in the same activity place; the The real-world photography device includes a speaker unit signal connected to the second processing unit; wherein, each of the head-mounted remote real-world devices senses the corresponding user's head command, and sends the control through the network system Signal to the corresponding real-life photography device; each real-life photography device receives the corresponding control signal through the network system to imitate the corresponding user’s head command to rotate; When the two radio units emit sound, the second radio unit generates a user audio signal through the first processing unit, and transmits it to the real-world camera device through the network system, so that the second processing unit controls the speaker unit to play The user audio, at the same time, the first radio unit of the other at least one actual camera device located around the reality camera rebroadcasts the user audio, and through the network system, corresponds to the other at least one actual camera The pair of earphones of the head-mounted remote reality device of the photographing device emits the user audio.

The effect of this creation is that the remote reality and control system and the multi-person remote reality and control system can use the state sensor to sense the user's head commands, and through the remote control of the network system, the reality The rotatable seat of the environment photography device imitates the user's head command to rotate synchronously. The real-life camera device transmits the real-time video and real-life audio to the head-mounted remote real-world device through the network system, so that the display unit displays the real-time video, and controls to send out the real-time audio to the headset. The multi-person remote reality and control system can also enable users in different regions to watch the same live event at the same time, and have a realistic sense of presence.

[This creation]

10, 10a, 10b, 10c, 10d, 10e: head-mounted remote reality device

12: Display unit

14: headphones

16: Status sensor

18: The second radio unit

20, 20a, 20b, 20c, 20d, 20e: reality photography installation

22: camera unit

24: The first radio unit

26: Rotatable seat

262: Rotating Table

264: Support arm

266: Pitch Head

28: Speaker unit

D1, D2, D3, D4: direction

P: User

S: Event venue

Figure 1 is a schematic diagram of a remote reality and control system for creating a preferred embodiment.

Figure 2 is a schematic diagram of creating a preferred embodiment of a head-mounted remote reality device

FIG. 3 is a schematic diagram of a real-world photography device created in a preferred embodiment.

4 is a schematic diagram of a multi-person remote reality and control system for creating a preferred embodiment.

In order to explain the creation more clearly, the preferred embodiments are described in detail below in conjunction with the drawings. Please refer to FIG. 1. FIG. 1 is a schematic diagram of a remote reality and control system for creating a preferred embodiment. The remote reality and control system includes a head-mounted remote reality device 10 and a reality photography device 20.

Please refer to FIG. 1 and FIG. 2 together. The head-mounted remote reality device 10 is used for the user P to wear, and the head-mounted remote reality device 10 is signally connected to a network system.

The head-mounted remote reality device 10 includes a display unit 12, a pair of earphones 14, a status sensor 16 and a first processing unit (not shown), wherein the display unit 12, the pair of earphones 14 and the The state sensor 16 is signally connected to the first processing unit. The state sensor 16 is used for sensing head commands of the user P, and the state sensor 16 generates a control signal through the first processing unit and sends the control signal through the network system. In a preferred embodiment of this creation, the state sensor 16 includes a gyroscope, an acceleration sensor, a gravity sensor, a three-axis sensor, an eye tracker, a brain wave sensor, a voice recognizer, Tongue pick or The combination, but not limited by this. In a preferred embodiment of the present invention, when the state sensor 16 is an eye tracker, the state sensor 16 is configured to correspond to the user's eyes. In a preferred embodiment of the present creation, when the state sensor 16 is a voice recognizer, the state sensor 16 is set to correspond to the user's mouth. In a preferred embodiment of the present invention, when the state sensor 16 is a tongue pick, the state sensor 16 is arranged corresponding to or inside the user's mouth.

Please refer to FIG. 1, FIG. 2 and FIG. 3. The reality photography device 20 is set in an event place S. The reality photography device 20 is used to rebroadcast a live event being performed at the event location S, and the signal is connected In the network system and receive the control signal.

The real-life photography device 20 includes a camera unit 22, a first radio unit 24, a rotatable base 26, and a second processing unit (not shown), wherein the camera unit 22 and the first radio unit 24 are It is arranged on the rotatable base 26, and the camera unit 22, the first radio unit 24 and the rotatable base 26 are signally connected to the second processing unit. In a preferred embodiment of the present creation, the rotatable seat 26 of the reality photography device 20 includes a rotating table 262, a supporting arm 264 and a tilting head 266, and the bottom surface of the rotating table 262 is set in the activity site S The support arm 264 is fixed on the rotating platform 262, and the tilt head 266 is pivoted on the support arm 264 and can be controlled to rotate left and right relative to the virtual seat. The manipulatively pivots up and down relative to the support arm 264.

After the real-world photography device 20 receives the control signal, the second processing unit controls the rotatable base 26 to imitate the user P's head command to rotate synchronously, and at the same time the camera unit 22 and the first radio unit 24 rebroadcast the A live image and a live audio of a live event, the live camera device 20 transmits the live image and the live audio to the headset remote reality device 10 through the network system, so that the first processing unit controls the display The unit 12 displays the live video, and controls the pair of earphones 14 to send out the live audio. As shown in Figure 3, the first radio The unit 24 is arranged on the support arm; the first radio unit 24 includes a directional microphone. In the preferred embodiment of the present creation, the head command includes the head movement of the user P, the eyeball rotation of the user P, the brain wave signal of the user P, the voice command of the user P, the use Person P’s tongue movements or a combination thereof.

In detail, when the user P wears the head-mounted remote reality device 10 to make the left-turned head or the right-turned head as shown in the direction D1 in FIG. 2, and the head up or down as shown in the direction D2 in FIG. When the head moves, the state sensor 16 (ie, gyroscope, acceleration sensor, gravity sensor, three-axis sensor or a combination thereof) senses and generates the control signal through the first processing unit, the After the reality camera device 20 receives the control signal through the network system, the second processing unit controls the rotating table 262 to rotate left or right as shown in the direction D3 in FIG. 3, and the tilt head 266 corresponds to The upper or lower pivot as shown in the direction D4 in Fig. 3.

In another preferred embodiment of the present creation, when the user P wears the head-mounted remote reality device 10, the eyeball rotation includes turning left, turning right, turning up, turning down, or a combination thereof When the state sensor (that is, the eye tracker) senses the eye movement of the user P and generates the control signal through the first processing unit, the reality camera device 20 receives the control signal through the network system , The second processing unit controls the rotating table 262, the tilt head 266, or a combination thereof to make a left rotation, a right rotation, an upper pivot swing, a lower pivot swing, or a combination thereof.

In another preferred embodiment of the present creation, when the user P wears the head-mounted remote reality device 10 and sends out the brain wave signal including turning left, turning right, turning up, turning down, or a combination thereof, the state The sensor 16 (ie, the brain wave sensor) senses the brain wave signal of the user P and generates the control signal through the first processing unit. After the reality camera device 20 receives the control signal through the network system , The second processing unit controls the rotating table 262, the tilt head 266, or a combination thereof to make a left rotation, a right rotation, an upper pivot swing, a lower pivot swing, or a combination thereof.

In another preferred embodiment of the present creation, when the user P wears the head-mounted remote reality device 10 and sends out the voice command including turning left, turning right, turning up, turning down, or a combination thereof, the state sense The detector (ie, voice recognizer) recognizes the voice command of the user P and generates the control signal through the first processing unit. After the reality camera device 20 receives the control signal through the network system, the second processing unit Controlling the rotating table 2622, the tilting head 266 or a combination thereof corresponds to a left rotation, a right rotation, an upper pivot swing, a lower pivot swing or a combination thereof.

In a more preferred embodiment of the present creation, when the user P wears the head-mounted remote reality device 10 to make a left swing of the tongue, a right swing of the tongue, an upward swing of the tongue, a lower swing of the tongue, or a combination thereof When the tongue moves, the state sensor (that is, the tongue pick) senses the user P's tongue movement and generates the control signal through the first processing unit, and the reality camera device 20 passes through the network After the system receives the control signal, the second processing unit controls the rotating table 262, the tilt head 266 or a combination thereof to make a left rotation, a right rotation, an upper pivot swing, a lower pivot swing or a combination thereof.

In the above-mentioned embodiment of the present creation, the rotating table 262 and the tilting head 266 each include a driving motor (not shown in the figure) and a gear set (not shown in the figure) connected to each other, and the driving motor can be affected by the second The processing unit controls and drives the gear set to act, thereby driving the rotating table, the tilting head, or a combination thereof to pivot. In a preferred embodiment of the present creation, the rotating table 262 takes the 12 o'clock direction as 0 degrees, the left and right rotation angles of the rotating table range from 90 degrees to -90 degrees; the tilt head 266 takes the horizontal direction as 0 degrees, the upper and lower pivot angles of the tilt head range from 30 degrees to -20 degrees.

The camera unit 22 is installed on the tilt head 266. When the rotating table 262, the tilt head 266, or a combination thereof moves, the field of view of the camera unit 22 is shifted synchronously, so that the head-mounted remote reality device 10 The display unit 12 displays the live video with the screen shifted synchronously. In a preferred embodiment of this creation, the camera unit 22 includes a wide-angle lens group (not shown in the figure) Shown) and a telescopic lens set (not shown), and the headset remote reality device 10 includes a switch (not shown), when the user P operates the switch, the headset remote The reality device 10 sends a control signal to the camera unit 22 of the reality camera device 20 via the network system, and controls the camera unit 22 to use the wide-angle lens group or the telescope lens group via the second processing unit. In a preferred embodiment of the present creation, when the camera unit 22 uses the wide-angle lens set, the display unit 12 displays the wide-angle live image; when the camera unit 22 uses the telescope lens set, the switch can be manipulated The focal length of the telescope lens group is remotely controlled to adjust a magnification ratio of the live image displayed by the display unit 12.

The head-mounted remote real-world device 10 includes a second radio unit 18 signal-connected to the first processing unit, and the real-world camera device 20 includes a speaker unit 28 signal-connected to the second processing unit, when the user When P makes a sound to the second radio unit 18, the second radio unit 18 generates a user audio signal through the first processing unit, and transmits it to the real-world camera device 20 through the network system, so that the second processing unit The unit controls the speaker unit 28 to play the user audio.

Next, please refer to FIG. 4, which is a schematic diagram of a multi-person remote reality and control system for creating a preferred embodiment. The multi-person remote reality and control system includes a plurality of head-mounted remote reality devices 10a, 10b, 10c, 10d, 10e as described above and a plurality of reality photography devices 20a, 20b, 20c, 20d, and 20e. In this creative embodiment, the users wearing the head-mounted remote reality devices 10a, 10b, 10c, 10d, and 10e are located in different places of use.

Each of the head-mounted remote reality devices 10a, 10b, 10c, 10d, and 10e is individually worn by a corresponding user; each of the head-mounted remote reality devices 10a, 10b, 10c, 10d, and 10e includes a second radio unit The signal 18 is connected to the first processing unit. The real-world photography devices 20a, 20b, 20c, 20d, and 20e are set in the same activity place S; The shadow devices 20a, 20b, 20c, 20d, and 20e include a speaker unit 28 signally connected to the second processing unit. Wherein, each of the head-mounted remote reality devices 10a, 10b, 10c, 10d, and 10e senses the corresponding user's head command, and sends the control signal to the corresponding reality camera through the network system Devices 20a, 20b, 20c, 20d, 20e.

Each of the real-life photography devices 20a, 20b, 20c, 20d, and 20e receives the corresponding control signal through the network system to imitate the corresponding user's head command to rotate synchronously. When the user emits a sound to the second radio unit 18, the second radio unit 18 generates a user audio signal via the first processing unit, and transmits it to the real-world camera devices 20a, 20b, and via the network system. 20c, 20d, 20e, so that the second processing unit controls the speaker unit 28 to play the user audio, and at the same time the other at least one reality surrounding the reality photography device 20a (take the reality photography device 20a as an example) The first radio unit 24 of the photographing devices 20b, 20c, and 20d rebroadcasts the user’s audio, and through the network system, makes the head-mounted remote reality corresponding to the at least one other real-life photography device 20b, 20c, and 20d The pair of earphones 14 of the devices 10b, 10c, and 10d emit the user audio. In a preferred embodiment of this creation, the first radio unit 24 of the reality photography device 20c, 20d closest to the reality photography device 20a rebroadcasts the user’s audio, and the head-mounted remote reality device 10c, 10d The pair of earphones 14 emit the loudest user audio; on the contrary, because the reality photography device 20e is the farthest away from the reality photography device 20a, the first radio unit 24 of the reality photography device 20e does not receive well, and the The pair of earphones 14 of the head-mounted remote reality device 10e emits the smallest sound of the user audio or does not emit the user audio.

In a preferred embodiment of this creation, each of the real-world photography devices 20a, 20b, 20c, 20d, and 20e is individually set on a virtual seat in the activity place S, and the real-world photography devices 20a, 20b, 20c, 20d, and 20e are arranged in an array in the venue S. The arrangement state of the real-life photography devices 20a, 20b, 20c, 20d, and 20e includes a first row and A second row, the first row is closer to an activity center of the activity place S than the second row, and the installation height of the second row is greater than the installation height of the first row.

In a preferred embodiment of this creation, when each of the real-world photography devices 20a (take the real-world photography device 20a as an example) is controlled to rotate to another real-world photography device 20b and enters the lens field of view, the second processing unit Identify the user corresponding to the other reality camera device 20b, and send an identification signal to the head-mounted remote reality device 10a corresponding to the reality camera device 20a through the network system, so that the first processing unit controls The display unit 12 displays the live image from which the other reality camera device 20b has been removed or displays the live image in which the user's preset face corresponding to the other reality camera device 20b has been integrated.

In a preferred embodiment of this creation, the live event includes a concert, a concert, a sports event, a product launch event, or a press conference.

With the remote reality and control system and the multi-person remote reality and control system provided by this creative embodiment, the state sensor can sense the user’s head commands and remotely control by the network system. Make the rotatable seat of the real-world photography device imitate the user's head command to rotate synchronously. The real-life camera device transmits the real-time video and real-life audio to the head-mounted remote real-world device through the network system, so that the display unit displays the real-time video, and controls to send out the real-time audio to the headset. The multi-person remote reality and control system can also enable users in different regions to watch the same live event at the same time, and have a realistic sense of presence.

The above descriptions are only the preferred and feasible embodiments of this creation. Any equivalent changes made in the application of this creation specification and the scope of patent application should be included in the patent scope of this creation.

10: Head-mounted remote reality device

20: Realistic photography installation

P: User

S: Event venue

Claims (21)

A remote reality and control system includes: a headset remote reality device for users to wear, and the signal is connected to a network system; the headset remote reality device includes a display unit, a pair of Headset, a status sensor, and a first processing unit, wherein the display unit, the pair of headsets, and the status sensor signal are connected to the first processing unit; the status sensor is used to sense the user's head The state sensor generates a control signal through the first processing unit and sends the control signal through the network system; a real-life photography device is set in an activity place, and the real-life photography device is used Rebroadcast a live event in the event venue, and the signal is connected to the network system and receives the control signal; the live camera device includes a camera unit, a first radio unit, a rotatable base and a second Processing unit, wherein the camera unit and the first radio unit are arranged on the rotatable base, and the camera unit, the first radio unit and the rotatable base signal are connected to the second processing unit, when the reality After the camera device receives the control signal, the second processing unit controls the rotatable base to imitate the user's head command to rotate synchronously, while the camera unit and the first radio unit rebroadcast a live image and a live event of the live event Audio, the reality camera device transmits the live image and the live audio to the head-mounted remote reality device through the network system, so that the first processing unit controls the display unit to display the live image and controls the pair of headphones Send the live audio. The remote reality and control system according to claim 1, wherein the rotatable base of the reality photography device includes a rotating table, a supporting arm, and a tilting head, and the bottom surface of the rotating table is set at the place of the activity On a virtual seat and can be manipulated to rotate left and right relative to the virtual seat; the support arm is fixed on the rotating platform, and the tilting head is pivoted on the support arm and can be manipulated relative to the The support arm pivots up and down. The remote reality and control system according to claim 2, wherein the head command includes the user's head movement, the user's eyeball rotation, the user's brain wave signal, and the user's voice command , The user's tongue movements or a combination thereof. The remote reality and control system according to claim 3, wherein when the user wears the head-mounted remote reality device, the user performs the head movement including turning left, turning right, raising, lowering, or a combination thereof When the state sensor senses the movement of the user’s head and generates the control signal through the first processing unit, after the reality camera device receives the control signal through the network system, the second processing unit controls The rotating platform, the tilting head, or a combination thereof correspondingly perform left rotation, right rotation, upper pivot swing, lower pivot swing or a combination of actions. The remote reality and control system according to claim 3, wherein when the user wears the head-mounted remote reality device, the user makes a left turn, a right turn, an upward turn, a downward turn, or a combination thereof When the eyeball rotates, the state sensor senses the user's eyeball rotation and generates the control signal through the first processing unit. After the reality camera device receives the control signal through the network system, the second processing The unit controls the rotating table, the tilting head, or a combination thereof to make a left rotation, a right rotation, an upper pivot swing, a lower pivot swing, or a combination thereof. The remote reality and control system according to claim 3, wherein when the user wears the head-mounted remote reality device and sends out the brain wave signal including left turn, right turn, up turn, down turn or a combination thereof The state sensor senses the user’s brain wave signal and generates the control signal through the first processing unit. After the reality camera device receives the control signal through the network system, the second processing unit controls the The rotating platform, the tilting head, or a combination thereof correspondingly make left-rotation, right-rotation, upper pivot swing, lower pivot swing or a combination of actions. The remote reality and control system according to claim 3, wherein when the user wears the head-mounted remote reality device and sends out the voice command including turning left, turning right, turning up, turning down, or a combination thereof, The state sensor recognizes the user’s voice command and passes through the first place The processing unit generates the control signal. After the reality camera device receives the control signal through the network system, the second processing unit controls the rotating table, the tilting head, or a combination thereof to rotate left, right, and pivot. Swing, pivot swing, or a combination of actions. The remote reality and control system according to claim 3, wherein when the user wears the head-mounted remote reality device, the system includes tongue swing left, tongue swing right, tongue swing up, tongue swing or When the combined tongue moves, the state sensor senses the user's tongue movement and generates the control signal through the first processing unit. After the reality camera device receives the control signal through the network system , The second processing unit controls the rotating table, the tilting head, or a combination thereof to make a left rotation, a right rotation, an upper pivot swing, a lower pivot swing, or a combination thereof. The remote reality and control system according to claim 2 or 8, wherein the rotating table and the tilting head each include a driving motor and a gear set connected to each other, and the driving motor can be controlled by the second processing unit. Drive the gear set to move, and then drive the rotating table, the tilt head or a combination thereof to pivot. The remote reality and control system according to claim 2 or 8, wherein the rotation table is 0 degrees at 12 o'clock, and the left and right rotation angles of the rotation table range from 90 degrees to -90 degrees; The horizontal direction of the tilt head is 0 degrees, and the upper and lower pivot angles of the tilt head range from 30 degrees to -20 degrees. The remote reality and control system according to claim 2 or 8, wherein the camera unit is arranged on the tilt head, and when the rotating table, the tilt head or a combination thereof act, the lens field of view of the camera unit shifts synchronously , Enabling the display unit of the head-mounted remote reality device to display the live image with synchronous displacement of the frame. The remote reality and control system according to claim 11, wherein the camera unit includes a wide-angle lens group and a telescope lens group, and the head-mounted remote reality device includes a switch, when the user operates the switch , The headset remote reality device passes The network system sends a control signal to the camera unit of the reality camera device, and controls the camera unit to use the wide-angle lens group or the telephoto lens group through the second processing unit. The remote reality and control system according to claim 12, wherein when the camera unit uses the wide-angle lens group, the display unit displays the wide-angle live image; when the camera unit uses the telescope lens group, the switch The focal length of the telescope lens group can be controlled remotely to adjust a magnification ratio of the live image displayed by the display unit. The remote reality and control system according to claim 2, wherein the first radio unit is arranged on the support arm; the first radio unit includes a directional microphone. The remote reality and control system according to claim 1, wherein the head-mounted remote reality device includes a second radio unit signal connected to the first processing unit, and the reality camera device includes a speaker unit signal Connected to the second processing unit, when the user emits a sound to the second radio unit, the second radio unit generates a user audio signal through the first processing unit and transmits it to the real world through the network system The photographing device enables the second processing unit to control the speaker unit to play the user audio. A multi-person remote reality and control system, comprising: a plurality of head-mounted remote reality devices as described in claim 1, each of the head-mounted remote reality devices is individually worn by a corresponding user; The wearable remote real-world device includes a second radio unit signal connected to the first processing unit; a plurality of real-world photography devices as described in claim 1 are set in the same activity place; the real-world photography device includes a The loudspeaker unit signal is connected to the second processing unit; wherein, each of the head-mounted remote reality devices senses the corresponding user's head command, and sends the control signal to the corresponding one through the network system Real-world photography device; each real-world photography device receives the corresponding control signal through the network system to imitate the corresponding user's head command to rotate synchronously; when the user makes a sound to the second radio unit At this time, the second radio unit generates a user audio signal through the first processing unit, and transmits it to the real-world camera device through the network system, so that the second processing unit controls the speaker unit to play the user audio signal, At the same time, the first radio unit of the other at least one real-world photography device located around the real-world photography device rebroadcasts the user's audio, and through the network system, makes the head corresponding to the other at least one real-life photography device The pair of earphones of the wearable remote reality device emit the user audio. The multi-person remote reality and control system according to claim 16, wherein the users wearing the head-mounted remote reality devices are located in different places of use. The multi-person remote reality and control system according to claim 16, wherein each of the reality photography devices is individually set on a virtual seat in the event venue, and the reality photography devices are in the event venue Arranged in an array. The multi-person remote reality and control system according to claim 18, wherein the arrangement state of the reality photography devices includes a first row and a second row, and the first row is closer than the second row An activity center of the activity place, and the installation height of the second row is greater than the installation height of the first row. The multi-person remote reality and control system according to claim 16, wherein when each reality photography device is controlled to rotate to another reality photography device and enters the lens field of view, the second processing unit recognizes the other reality photography device The user corresponding to the reality camera device sends an identification signal to the head-mounted remote reality device corresponding to the reality camera device through the network system, so that the first processing unit controls the display unit to display that it has been removed The live image of the other real-life photography device may display the real-life image that has been integrated with the preset face of the user corresponding to the other real-life photography device. The multi-person remote reality and control system according to claim 16, wherein the live event includes a concert, a concert, a sports event, a product launch event, or a press conference.

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