TWM679289U - All-in-one simple control system for live streaming and recording - Google Patents

Abstract

This invention provides an all-in-one simple control system for live streaming and recording, which includes a main control device, recording devices, and a remote control device. The main control device comprises a live streaming module, a remote unit, and a display unit. The recording devices include first recording devices and second recording devices, both of which are equipped with a shooting unit, a target tracking module, and a remote recording unit. The main control device can receive original film by the recording devices and control signals from the remote control device. The recording devices can automatically track and capture a pre-set tagged target using the target tracking module. The operator can use the remote control device to control the main control device, switching between different original films as the output film for live streaming. Additionally, the post-processing module in the main control device can enhance the broadcast with special effects, providing a more dynamic and engaging visual experience. With this invention, the operator can achieve live streaming effects similar to those produced by a traditional multi-person filming team while significantly reducing manpower requirements.

Description

Multifunctional and easy-to-use system for live streaming and recording

This invention relates to the field of network live streaming and recording control console devices, and more particularly to a multifunctional, easy-to-operate system for network live streaming and recording that combines automation to save manpower.

As the online live streaming industry expands, various amateur influencers are starting to upload videos or live stream on various video platforms. Anyone with a smartphone or tablet and other recording equipment can create content on their preferred platform. Unlike the traditional film and television industry, the current online live streaming ecosystem is no longer limited to studios; various scenes can be streamed with just simple recording equipment and internet access. The equipment and technical barriers are constantly decreasing, allowing many people without film and television experience to try their hand at it.

However, the traditional film and television industry still possesses irreplaceable advantages in organizational maturity and division of labor. To enrich the visuals and showcase different camera techniques through close-ups, traditional television films typically employ multiple cameras and multiple cinematographers, a practice particularly common in live broadcasts. Furthermore, these cameras are connected to a control panel, which switches between different camera feeds on the main screen, allowing viewers to view footage from various angles or in close-ups.

Most practitioners in the emerging online live streaming industry are inexperienced novices, typically lacking extensive film and television industry experience, especially in terms of funding and team size, making it difficult to compare with traditional film and television industries. When conducting online live streams, the limited manpower restricts the presentation of richer visuals, making it difficult to showcase multiple angles and close-ups. They can only achieve the same effect by shooting different shots of the same action multiple times and then editing them later, resulting in a relatively static and unnatural visual experience during live streams.

Furthermore, in online live streaming, the host is usually the channel's main personality and team leader, especially for channels run under a personal name, where the host must personally appear in the program. Hosts with creative and directing abilities are thus limited by their role, needing others to control the output, and cannot directly control the live stream to achieve the desired effect. At the same time, unexpected situations inevitably arise during online live streams, deviating from the rehearsed script. As the program host, the host can usually better guide the entire program and better manage the timing of camera transitions. This prevents the host from having to wait for the team off-screen to respond to unexpected events, or from a lack of coordination forcing the live stream to be paused.

The creator of this project, recognizing the limitations of online live streaming devices due to manpower constraints and the limitations of the host's position in providing timely guidance, has actively and continuously researched and developed creative solutions to address these issues.

The primary purpose of this project is to reduce the manpower required for shooting footage from multiple angles by combining automated recording devices and a control console. This lowers the team size threshold for online live streaming, further reducing upfront team costs and enabling amateurs to deliver better live stream content.

The secondary objective of this invention is to utilize a remote control device to control the screen output from the main control console, freeing the operator from being confined to behind-the-scenes roles and allowing control from the front-of-house. It also allows for switching between control screens without restriction, enabling operation by other professionals not physically present at the site.

Another objective of this creation is to reduce the workload for the broadcaster by using pre-set output settings. Different pre-configured screen switching modes, post-production modes, or automatic switching modes allow the creation to automatically adjust the output screen, increasing visual variety during live streams and thus reducing the broadcaster's operational burden.

This invention relates to a multi-functional, easy-to-use online live streaming and recording system, comprising: a main control device, a recording device, and a remote control device. The main control device includes: a live streaming module, a remote unit, and a display unit. The recording device includes: a first recording device and a second recording device, each with: a shooting unit, a target tracking module, and a remote recording unit.

The main control unit can receive signals from multiple recording devices, integrate them, and output them to a live streaming platform. It can also execute corresponding functions based on signals from remote control devices. The live streaming module receives raw footage from multiple recording devices, selects one to convert or extract portions as needed to form an output image, and then uploads the output image to the internet or any live streaming platform for live streaming. The remote control unit receives and processes remote control signals, adjusts the main control unit's output image based on the remote control signals, and sends control signals to the recording devices. The display unit displays multiple raw and output images, thereby monitoring the status of the footage returned by each recording device and the main control unit's output image, allowing the operator to understand the current situation.

The recording device can be subdivided into a first recording device for shooting, focusing on, or tracking a specific target character, and a second recording device for shooting panoramic scenes, depending on the shooting target or location. The shooting unit is used to shoot raw footage and can zoom in or zoom out on local areas as needed to achieve a close-up effect; the target tracking module is used to track pre-set markers on the shooting target; and the remote recording unit is used to transmit the raw footage signal captured by the shooting unit to the main control device, and can also receive control signals from the main control device to adjust the recording mode of the recording device. The remote control device has multiple buttons for the operator to use, transmitting remote control signals to the main control device so that the main control device executes the functions corresponding to different buttons.

In one preferred embodiment of this invention, before shooting, the operator can pre-set the markers on each recording device to be filmed on the desired target, and set the target tracking module to lock onto the markers. During shooting, when the markers move, the recording device can follow the markers by moving or rotating the shooting unit, ensuring the markers remain in the original frame of the shooting unit. The operator then uses the buttons on the remote control to control the main control device to switch the original footage from different recording devices into the output footage, depending on the situation.

In a preferred embodiment of this invention, the target tracking module includes: a driving device, a marker signal source emitting element, and a signal sensing element. The driving device can control the rotation or movement of the shooting unit, thereby adjusting the position and direction of the shooting unit; the marker signal source emitting element is placed on the target to be captured, and emits a signal to form a marker on the target; and the signal sensing element senses the signal emitted by the marker signal source emitting element, enabling the recording device to know the position of the marker target and thus adjust the shooting direction of the shooting unit.

In a preferred embodiment of this invention, the buttons include a plurality of first-type buttons and second-type buttons. The first-type buttons can switch between original footage from different recording devices and their output footage; while the second-type buttons can control the recording device corresponding to the original footage being converted into output footage, fine-tuning the recording device's up, down, left, right, zoom in, zoom out, and depth of field to change the original footage.

Preferably, when the output screen switches to the original view of another recording device, the previous recording device, which was fine-tuned using the second type of button, will return to its initial state.

In a preferred embodiment of this invention, the live streaming module includes a recording unit and an audio recording unit. The recording unit stores all original and output video feeds input to and output to the live streaming module for later editing. The audio recording unit can receive audio sources from various target points or scenes, and output them along with the output video to the internet or a live streaming platform; it can also store all audio for later editing.

Preferably, the recording unit can be a microphone or any recording device mounted on the target, or it can be a microphone mounted on a recording device.

In a preferred embodiment of this invention, the buttons further include a plurality of third-class function buttons that can adjust the audio source input to the live streaming module so that the audio source corresponds to the original image currently output to the output screen, and can also adjust the volume of the audio source input.

Specifically, the operator can use a remote control to adjust both the audio source and the output screen to originate from the same target.

In a preferred embodiment of this invention, the main control device further includes a post-production module capable of pre-setting multiple post-production effects. These effects can include different filters, canned sound effects, tone adjustments, and echo levels of the sound source.

In a preferred embodiment of this invention, the buttons further include a plurality of fourth-type buttons for adding post-production effects to the output screen. The operator can use a remote control to press the corresponding post-production effect buttons, remotely controlling the main control device to output different post-production effects to the output screen, increasing the visual appeal.

In a preferred embodiment of this invention, the main control device is also connected to a live streaming screen to display real-time viewer reactions.

In a preferred embodiment of this invention, the main control device further includes an automatic switching module and an automated shooting module. The automatic switching module can be set with various switching thresholds and includes multiple detection units. Each detection unit senses whether a target exhibits a reaction, and each detection unit corresponds to a first recording device. When the target exhibits a reaction, the automatic switching module detects whether the reaction exceeds a switching threshold. If the threshold is exceeded, the main control device replaces the original image transmitted by the first recording device corresponding to the detection unit with the output image.

The automated imaging module automatically replaces different original images with output images based on the sensing results of the detection units or the automated process preset by the operator. Simultaneously, a target tracking module automatically tracks the marked target, thereby reducing the operator's workload and allowing for manual control of the output image under specific circumstances.

In a preferred embodiment of this invention, the detection unit includes a volume detection element and a motion detection element. The volume detection element detects the volume of the marked target; and the motion detection element detects the magnitude of motion in the original image. The response behavior includes both the volume change and the motion change of the marked target.

In detail, the magnitude of the movement is determined by calculating the changes in the original image at different times, thus deriving the magnitude of the movement of the marked target within a specific time period.

The effectiveness of this invention lies in its integration of a main control device, recording device, and remote control device. This allows the operator to use the remote control to switch between different recording devices as the video source. Simultaneously, the use of a target tracking module avoids the need to increase the number of operators as the number of recording devices increases. It addresses the problem of traditional film and television industries requiring a large workforce for live broadcasts, lowering the operational threshold so that operators only need a recording device that can connect to the main control device, such as a mobile phone, tablet, or webcam, to capture footage from multiple perspectives.

Meanwhile, the remote control is pre-programmed with buttons for various functions to control the main control device. The operator is no longer limited to being an actor, director, or screenwriter; they can act as both actor and director, manipulating the recording equipment to adjust the output on-site, enabling live streaming or recording with fewer personnel, or even one person, to complete multiple switchable camera angles.

Another benefit of this invention is that it utilizes a combination of automation and target tracking modules to automatically control the output of live streams, reducing the operator's workload. Operator intervention is only required in specific situations to enhance the visual effects.

1: Main Control Device

11: Live Streaming Module

110: Output screen

111: Live Streaming Platforms

12: Remote Unit

13: Display Unit

14: Live Stream Screen

2: Recording Device

201: First Recording Device

2010: First Original Footage

202: Second Recording Device

2020: Second Original Footage

21: Filming Unit

210: Original Image

22: Target Tracking Module

221: Marking the Target

23: Remote Recording Unit

3: Remote Control Device

311: First type of key

312: Second type of button

313: Third type of button

314: Fourth type of button

4: Automatic switching module

41: Detection Unit

411: Volume Detector

412: Motion Detection Element

5: Post-production module

6: Automated Shooting Module

S6: Automated Process

S601: Setup Steps

S602: Automatic Detection Procedure

S603: Close-up Mode Six-hundred-minute mode Six-hundred-

S604: Scene Mode

Figure 1 is a schematic diagram of the application scenario of this invention embodiment; Figure 2 is a schematic diagram of the architecture of this invention embodiment; Figure 3 is a schematic diagram of the display unit interface of this invention embodiment; Figure 4 is a schematic diagram of the remote control device of this invention embodiment; and Figure 5 is a flowchart of the automation process of this invention embodiment.

To facilitate understanding of this invention, a detailed description is provided below with reference to the accompanying drawings and embodiments. The accompanying drawings show only a portion, not all, of the embodiments of this invention. This invention can be implemented in many different forms and is not limited to the embodiments described herein. Rather, the purpose of providing these embodiments is to make the disclosure of this invention more thorough and comprehensive. All other embodiments obtained by a person skilled in the art based on the embodiments in this invention without any progressive effort are within the scope of protection of this invention.

Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the art. The terminology used in this specification is for the purpose of describing specific embodiments only and is not intended to limit the scope of the invention.

Figures 1 to 4 are schematic diagrams of embodiments of this invention. As shown in Figure 1 (first application scenario) and Figure 2 (architectural structure), the multi-functional and easy-to-use online live streaming and recording system of this invention includes: a main control device 1, a recording device 2, and a remote control device 3. The main control device 1 includes: a live streaming module 11, a remote unit 12, and a display unit 13; the recording device 2 includes: a first recording device 201 and a second recording device 202, each with: a shooting unit 21, a target tracking module 22, and a remote recording unit 23.

As shown in Figures 2 and 3, which are schematic diagrams of the display unit 13 of this invention embodiment, the main control device 1 can receive signals from multiple recording devices 2 and remote control devices 3, integrate them, and output them to the live streaming platform 111. The live streaming module 11 receives raw footage 210 from multiple recording devices 2, and can select one to convert or extract a portion of the raw footage 210 to form an output image 110, which is then uploaded to the internet or any live streaming platform 111 for live streaming. The remote unit 12 receives and processes remote control signals from the remote control device 3, adjusts the output image 110 of the main control device 1 according to the remote control signals, and sends control signals to the recording devices 2. The display unit 13 displays multiple raw footage 210 and output images 110, thereby monitoring the raw footage 210 returned by each recording device 2 and the output image 110 of the main control device 1, allowing the operator to monitor the situation.

The recording device 2 can be subdivided into a first recording device 201 for shooting, close-ups, or tracking specific target characters, and a second recording device 202 for shooting panoramic scenes, depending on the shooting target or location. Multiple sets of the first recording device 201 and the second recording device 202 can be used simultaneously, depending on the operator's needs.

In the recording device 2, the shooting unit 21 is used to capture raw footage 210, and the operator can zoom in or zoom out on parts of the raw footage 210 to achieve a close-up effect; the target tracking module 22 is used to track a pre-set marker 221 on the shooting target; and the remote recording unit 23 can transmit the raw footage 210 signal captured by the shooting unit 21 to the main control device 1, and can also receive control signals from the main control device 1 to adjust the recording mode of the recording device 2.

As shown in Figure 4, a schematic diagram of the remote control device 3 according to this embodiment, the remote control device 3 is equipped with multiple buttons for the operator to use in transmitting remote control signals to the main control device 1. Specifically, the remote control device 3 has buttons corresponding to different functions. Depending on the button pressed, different original images 210 transmitted from the recording device 2 can be imported into the output image 110. Alternatively, different or partial original images 210 can be captured and simultaneously imported into the output image 110 to display a multi-camera effect.

In a preferred application, the operator can pre-set the markers 221 on each recording device 2 to be filmed on the desired target, and set the target tracking module 22 to lock onto the markers 221. During filming, as the markers 221 move, the recording device 2 moves or rotates its shooting unit 21 along with the markers 221, ensuring that the markers 221 remain within the original frame 210 of the shooting unit 21.

In detail, the operator can use image recognition software or attach a signal source to the target to set the positioning point of the marked target 221 in the original frame 210. When the marked target 221 is about to leave the original frame 210, the camera unit 21 is moved or rotated to keep the marked target 221 within the original frame 210. It can also be combined with facial recognition or feature recognition systems to increase the accuracy and stability of detecting the marked target 221.

In a preferred embodiment of this invention, the target tracking module 22 includes: a driving device, a marker signal source emitting element, and a signal sensing element. The driving device can control the rotation or movement of the shooting unit 21, thereby adjusting the shooting position and direction of the shooting unit 21; the marker signal source emitting element is placed on the target to be captured, and the marker signal source emitting element emits a signal to form a marker target 221; and the signal sensing element is used to sense the signal emitted by the marker signal source emitting element, so that the recording device 2 can know the position of the marker target 221, and then adjust the shooting direction of the shooting unit 21 by means of the driving device.

Specifically, the marker signal source emitting element can be a transmitter capable of generating signals, such as infrared or Bluetooth, or it can be a sensorable chip or electronic component. The signal sensing element detects the marker signal source emitting element by sensing the signal generated or emitting electromagnetic waves, thereby determining the location of the marker target 221.

In a preferred embodiment of this invention, the buttons include a plurality of first-type buttons 311 and second-type buttons 312. The first-type buttons 311 can switch the original image 210 from different recording devices 2 to the output image 110; and the second-type buttons 312 can control the recording device 2 corresponding to the original image 210 converted to the output image 110, fine-tuning the rotation of the recording device 2 upwards, downwards, leftwards, or rightwards to change the shooting direction of the shooting unit 21; or adjusting the shooting unit 21 to zoom in, zoom out, or change the depth of field of the original image 210.

Furthermore, the recording device 2 records its initial state. When the operator uses the first type of button 311 to switch to the original image 210 of another recording device 2, the posture of the original recording device 2, adjusted by the second type of button 312, will return to its initial state.

Preferably, the original recording device 2 can also be adjusted to maintain its position, preventing it from resetting when switched to another recording device 2.

In a preferred embodiment of this invention, the live streaming module 11 includes a recording unit and an audio recording unit. The recording unit stores all original video feeds 210 and output video feeds 110 input to the live streaming module 11 for subsequent editing. The audio recording unit can receive audio sources from various target markers 221 or scenes, and output them to the network or live streaming platform 111 via the output video feed 110; it can also store all audio for subsequent editing.

In detail, the recording unit and the audio recording unit can simultaneously record and store the sound and video of the original frame 210 and the output frame 110. This preserves the footage from the shooting process, allowing the operator to edit the video later using editing software.

Preferably, the recording unit can be a recording microphone or any recording element mounted on the target 221, or a directional microphone, or a recording element mounted on the recording device 2 or the main control device 1.

As shown in Figure 5, these buttons also include a plurality of third-type buttons 313, which can adjust the audio source input to the live streaming module 11 so that the audio source can correspond to the original image 210 currently output to the output screen 110, and can also adjust the volume of the audio source input.

Specifically, when the operator uses the remote control 3 to switch between shooting different target 221, they can choose to keep the sound source as ambient sound or switch the sound source to the recording element corresponding to the target 221. This ensures that both the sound source and the output image 110 originate from the same target 221, reducing image and sound latency.

In a preferred embodiment of this invention, the main control device 1 further includes a post-production module 5, which can preset multiple post-production effects. These effects can include various filters, canned sound effects, tone adjustments, and echo levels of the sound source.

Specifically, filters can add patterns, effects, or animations to the output screen 110, and can also add special effects to specific areas or target markers 221 within the output screen 110, thereby increasing the liveliness of the image. Canned sound effects can add laughter, applause, or other scene sound effects to the audio source corresponding to the output screen 110.

In a preferred embodiment of this invention, the buttons further include a plurality of fourth-type buttons 314 for adding post-production effects to the output screen 110. The operator can use the remote control 3 to control the main control device 1 to output different post-production effects to the output screen 110 by corresponding to the fourth-type buttons 314 for post-production effects, thus increasing the visual appeal.

In a preferred embodiment of this invention, the main control device 1 is also connected to a live streaming screen 14. The live streaming screen 14 displays footage from the live streaming platform 111, allowing the operator to know the reactions of the live stream viewers in real time.

Specifically, the live streaming screen 14 will display relevant information from the live streaming platform 111 interface, or images presented after special effects have been added by the live streaming platform 111. For example: a text chat room for viewers, interactive effects for viewers on the live streaming platform 111, or the real-time number of viewers.

Preferably, the recording and audio recording units can also record part or all of the content displayed on the live screen 14 for later editing by the operator.

In a preferred embodiment of this invention, the main control device 1 further includes an automatic switching module 4 and an automated shooting module 6. The automatic switching module 4 can be set with various switching thresholds and includes multiple detection units 41. Each detection unit 41 is used to sense whether the marked target 221 exhibits a reaction, and each detection unit 41 corresponds to a first recording device 201. When the marked target 221 exhibits a reaction, the automatic switching module 4 detects whether the reaction exceeds the switching threshold. If the switching threshold is exceeded, the main control device 1 replaces the original image 210 returned by the first recording device 201 corresponding to the detection unit 41 with the output image 110.

The automated shooting module 6 executes a pre-set automated process S6 or a shooting script pre-set by the operator based on the sensing results of the detection units 41, thereby automatically replacing the original image 210 with the output image 110. Simultaneously, the target tracking module 22 automatically tracks the marked target 221, thereby reducing the operator's workload. The operator can manually control the output image 110 only under specific circumstances.

As shown in Figure 5, the automation process S6 of this embodiment can be subdivided into: setting step S601, automatic detection step S602, and close-up mode S603 and scene mode S604 selected for execution based on the situation. Setting step S601 allows the operator to set the switching threshold according to needs and turn on the automatic shooting mode; automatic detection step S602 allows the detection unit 41 to start detecting whether the reaction behavior of the marked target 221 exceeds the switching threshold. If the output exceeds the limit, enter close-up mode S603 and replace the output image 110 with the first original image 2010 corresponding to the detection unit 41; if not, return to scene mode S604 and replace the output image 110 with the second original image 2020.

Specifically, the shooting script can be pre-set with a timer for the operator, switching between different original shots 210 as output shots 110 at predetermined time intervals.

Preferably, the detection unit 41 can be an infrared sensor-type human body sensor.

Specifically, the detection unit 41 may include a volume detection element and a motion detection element. The volume detection element detects the volume level from the marked target 221; and the motion detection element detects the magnitude of the motion of the marked target 221 in the original frame 210. The response behavior includes both the volume change and the motion change of the marked target 221.

Specifically, the volume detection element can be a microphone set on the target 221, a directional microphone of the recording device 2, or a sound recognition program in the main control device 1. When it senses a volume change from the target 221, it sends a message back to the main control device 1. When the volume change exceeds a set switching threshold, the main control device 1 converts the original image 210 of the corresponding first recording device 201 into an output image 110.

The motion detection element can identify changes in the original image 210 at different times, such as changes in infrared radiation emitted by the target 221 when the marked target 221 is a human body, thereby determining whether the target 221 has engaged in any significant movements. For example, the motion detection element can be an infrared motion sensor, and by setting a switching threshold, different changes in infrared radiation from the marked target 221 can be used to determine the magnitude of the movement.

Furthermore, the motion detection element can also use image recognition technology to identify the amount of motion change in the original image 210 at different times, thereby determining whether the marked target 221 has made any large movements. And when it detects a change in motion from the marked target 221, it sends a message back to the main control device 1.

For example, the motion detection element can combine feature value algorithms, artificial intelligence algorithms, or facial motion recognition algorithms, and the main control device 1 can calculate whether the current marked target 221 has made any large movements. The motion change is derived from calculating the changes in the original image 210 over different time periods or the displacement of a specific marker point in the original image 210. When the magnitude of the motion change exceeds a preset switching threshold, the main control device 1 converts the original image 210 of the corresponding first recording device 201 into the output image 110.

Preferably, the eigenvalue algorithm or artificial intelligence algorithm can detect distinctive local features in the image, such as eyes, mouth, facial features, or body movements. When the marked target 221 has an expression or movement corresponding to the current situation, it is judged as a change in movement.

Preferably, the facial motion recognition algorithm can detect the facial movements of the target 221 and make judgments based on various obvious expressions, such as easily identifiable facial expressions like laughing, crying, or surprise. When the target 221 speaks or displays an expression appropriate to the current situation, it is judged as a change in motion.

The embodiments described above are merely preferred embodiments of the invention, and while the descriptions are specific and detailed, they should not be construed as limiting the scope of the patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of the invention, and these modifications and improvements all fall within the scope of protection of this invention.

1: Main Control Device

14: Live Stream Screen

201: First Recording Device

202: Second Recording Device

221: Marking the Target

Claims (10)

A multi-functional, easy-to-use system for online live streaming and recording includes: A main control device, receiving signals from a remote control device and a plurality of recording devices, and comprising: A live streaming module, receiving an original image from the recording devices, converting it into an output image, and uploading the output image to a network or live streaming platform; A remote control unit, receiving a remote control signal from the remote control device and transmitting a control signal to the recording devices; and A display unit, displaying the original image and the output image; The recording devices, connected to the main control device, and comprising: a first recording device and a second recording device, each comprising: A capturing unit for capturing the original image; A target tracking module for tracking a tagged target; A remote recording unit is used to output the original video signal to the main control device and receive the control signal; and the remote control device is equipped with multiple buttons for operator use to transmit different remote control signals; wherein, the recording devices respectively record a pre-set marker target, and the target tracking module locks onto the marker target. When the marker target moves, the recording device moves or rotates the recording unit along with the marker target, keeping the marker target within the original video frame of the recording unit; and wherein, the operator uses the buttons on the remote control device to control the main control device to switch different original video frames to the output video frame according to the situation. The multi-functional, easy-to-use operating system for live streaming and recording as described in claim 1, wherein the target tracking module comprises: a driving device for controlling the rotation or movement of the shooting unit; a marker signal source emitting element, positioned on the shooting target and emitting a signal to form the marker target; and a signal sensing element for sensing the signal of the marker target to determine the position of the marker target; wherein, after the signal sensing element detects the orientation of the marker target relative to the recording device, the driving device drives the shooting unit to move or rotate, changing the shooting direction of the shooting unit so that the marker target continues to appear in the original frame. The multi-functional, easy-to-use operating system for live streaming and recording as described in claim 2, wherein the buttons include: a first type of button for switching between different original video feeds converted to the output video feed; and a second type of button for controlling the recording device; wherein, when the original video feed of a specific recording device is converted to the output video feed, the second type of button controls the recording device, thereby adjusting the original video feed corresponding to the recording device. The multi-functional, easy-to-use operating system for live streaming and recording as described in claim 3, wherein the live streaming module includes: a recording unit for storing the original video input to the live streaming module and the output video; and an audio recording unit for receiving an audio source from the marked target or scene and outputting it to the internet or a live streaming platform in conjunction with the output video. As described in claim 4, the multi-functional, easy-to-use operating system for live streaming and recording includes a third type of button for adjusting the audio source; The operator can remotely control the main control device via this third type of button, switching the audio source from different target objects or scenes to match the corresponding output screen to the internet or live streaming platform. The multi-functional and easy-to-use operating system for live streaming and recording as described in claim 4, wherein the main control device also has a post-production module, which is used to pre-set multiple post-production effects to increase the visual interest. The multi-functional, easy-to-use operating system for live streaming and recording, as described in claim 6, further includes a fourth type of button for adding post-production effects to the output screen; The operator can remotely control the main control device and output the post-production effects to the output screen using the fourth type of button. The multi-functional, easy-to-use operating system for live streaming and recording, as described in any of claims 1 to 7, further includes a main control device connected to a live streaming screen for displaying the output image shown to the audience via the live streaming platform; The live streaming screen displays the audience's real-time reactions. The multi-functional, easy-to-use operating system for live streaming and recording as described in any of claims 1 to 7, wherein the main control device further comprises: an automatic switching module for setting all switching thresholds, and including a plurality of detection units, the detection units for detecting whether the marked target has a reactive behavior, and each detection unit corresponding to one of the first recording devices; and an automated shooting module for setting an automated process; wherein, when the marked target exhibits the reactive behavior, the automatic switching module determines whether the reactive behavior exceeds the switching threshold; when it exceeds the switching threshold, the main control device replaces the original image of the first recording device with the output image; and The automated imaging module executes the automated process or a pre-set script based on the sensing results of the detection units, automatically replacing different original images with the output image, and automatically tracking the marked target using the target tracking module, thereby reducing the operator's workload. The multi-functional, easy-to-use operating system for live streaming and recording as described in claim 9, wherein the detection unit includes: a volume detection element for detecting the volume level of the marked target; and a motion detection element for detecting the magnitude of the motion of the marked target; wherein, the response behavior includes the change in volume and the change in motion of the marked target.