TW201840200A - Interactive method for 3d image objects, a system, and method for post-production of 3d interactive video - Google Patents

Abstract

The disclosure is related to an interactive method for 3D image objects, a system thereof, and a method for post-production of a 3D interactive video. An interactive post-produced video is provided by embedding one or more modular objects into an original video in a post-production process. Each modular object has the same reference-position relationship with multiple anchors in the original video. A user uses a computer to interact with the objects in the video. The method allows a regular video to generate interactive effects. In the method, the user operates an interactive object in the post-produced video, and the computer computes an action made in the video, e.g. a moving track. If it is found an interactive position relationship between the interactive object and the modular objects meets an interactive range, an interactive video footage allowing a user to interact in real time is produced.

Description

 Stereoscopic image object interaction method, system and stereo interactive film post-production method  

The invention relates to a method and a system for interacting with an object in a film, in particular to a method and system for interacting a stereoscopic image object which allows a user to interact with a three-dimensional object in a movie after the film is inserted into the stereo module object.

The current technology can provide a way for a user to interact with images in a movie, such as a computer game. The game maker determines the rules for interacting with various players in the film through logical design. When the game interaction meets certain rules, it is set according to the prior art. The way to generate interactive content. These game screens are not real images, or only some real images that cannot perform game interaction.

Other technologies that provide image interaction such as Virtual Reality (VR), Augmented Reality (AR), or Mixed Reality (MR) with hybrid VR and AR technologies, which need to be in the beginning. Produce or shoot images conforming to VR or AR specifications, and design a user interface with the images in software to allow users to interact with mobile devices, wearable devices, or general computer devices.

Currently, the video content that the user can interact with is to make a movie in a specific format in advance, and can not change the image content in the video, such as VR, or put the virtual object into the real AR through the screen and the camera, and design (plot) in advance. A virtual space environment with specific logic rules, such as games, does not have the technology to create interactions in recorded real movies.

The present disclosure proposes a method and system for interacting stereoscopic image objects, and a method for post-production of stereoscopic interactive movies, one of the purposes of which can be used to create interactive elements through an after-production program in an existing original film, such as Some image objects allow the user to use some input means to simultaneously interact with the objects during the image playback process, and generate interactive images through software operations to achieve interactive imagery and instant interactive video. purpose.

According to an embodiment, a post-production movie is provided, and the film is then placed into an original film by a post-production program. The original film can be a general flat image, and the film has a mirror. Change, so in order to make the position of a specific image not be able to be positioned due to picture changes, the original film may be provided with a plurality of anchors, and at least one physical object may be described by multiple anchor points for positioning the position of the image object. Each modular material has a reference positional relationship with a plurality of anchor points in the original film.

In an embodiment of the method for interacting a stereoscopic image object, a computer device receives information of an action of an interactive component in a post-production movie, and operates an action of the interactive component in the post-production movie to detect each of the interactive component and the post-production movie. An interactive positional relationship of the modularized member, and then, when the interactive positional relationship of the corresponding modularized member enters an interactive range, an interactive signal is generated, which can trigger an interactive image, so that the post-production video combines the interactive component with the corresponding interactive signal An image that forms an interactive film.

The above computer device can be a terminal device operated by the user, or a cloud system. When the user operates on the terminal device, the user can perform an operation on the terminal device to instantly generate an interaction to form an interactive movie; or transmit the signal generated by the interaction. To the cloud system, the cloud system calculates the interactive image displayed on the terminal device. The interactive component is displayed on the display screen of the terminal device, and can be a graphic for moving the position by receiving touch, voice control, somatosensory control or mouse control.

In particular, in the film post-production process, the physical film changes of the original film are recognized by the software method, so that the module material is displayed in a spatial angle consistent with the original film, and can be appropriately placed in the same space of the image. Relationship.

In the embodiment of the interactive film making method, the original film is first obtained, and the angle change of a physical object described by the plurality of anchor points is judged according to the operation mirror of the original film, and then the physical object is changed according to the setting and the angle of the physical object. One or more modularized parts are placed on the upper part, and each modularized piece has a reference positional relationship with a plurality of anchor points in the original film, and the moving track of the camera is determined according to the operating lens of the original film, so that the setting can be set according to the original film The movement trajectory of one or more modularized parts, and the virtual camera is used to apply the movement trajectory during shooting to form a post-production movie that can be interactively interacted.

To realize the interaction method of stereoscopic image objects proposed in the disclosure book, a stereoscopic image object interaction system is proposed. The system mainly has a cloud server, and a database is provided. The database includes an original film library, a module material library and a post-production film library. It is used to provide a terminal device to display a post-production movie, and perform an interaction by operating a user interface on the post-production movie.

In order to further understand the technology, method and effect of the present invention in order to achieve the intended purpose, reference should be made to the detailed description and drawings of the present invention. The drawings are to be considered in all respects as illustrative and not restrictive

10‧‧‧ physical objects

12‧‧‧Interactive components

101,102,103,104,105,106‧‧‧Modularized parts

111,112,113,114,115,116,117,118,119,120,121‧‧‧ anchor

21‧‧‧Cloud Server

23‧‧‧Database

25‧‧‧ Terminal devices

20‧‧‧Network

251‧‧‧post film

30‧‧‧Cloud Server

301‧‧‧ arithmetic unit

303‧‧‧ memory unit

305‧‧‧Communication unit

32‧‧‧Database

321‧‧‧ original film library

323‧‧‧Modularized Parts Library

325‧‧‧post film library

34‧‧‧ Terminal devices

341‧‧‧Processing unit

342‧‧‧ memory unit

343‧‧‧Communication unit

344‧‧‧Input unit

345‧‧‧ display unit

Step S401~S411‧‧‧Interactive film production process

Step S501~S517‧‧‧Image Object Interaction Process

1A is a schematic diagram showing an embodiment of an interactive film implemented by the method for interacting a stereoscopic object of the present invention; FIG. 1B is a second schematic view showing an embodiment of an interactive film realized by the method for interacting a stereoscopic object of the present invention; FIG. 2 is a view showing a stereoscopic image of the present invention; FIG. 3 is a view showing an embodiment of a function and a circuit unit of each end of the stereoscopic image object interaction system of the present invention; FIG. 4 is a flowchart showing an embodiment of the stereoscopic interactive film post-production method of the present invention; A flow of an embodiment of the method for interacting a stereoscopic image object is invented.

In order to provide a user with an interactive image for a general flat film, the disclosure describes a method and system for interacting a stereoscopic image object, and a stereoscopic interactive film post-production method, which allows a user to interact with the displayed movie through a computer device. It proposes a post-production film that, when played in appropriate software, allows the user to manipulate the components to create interaction.

According to one embodiment, in a computer device for implementing a method for interacting a stereoscopic image object, an original movie is first prepared, preferably a flat film for capturing a real scene, and then one or more modules are placed in the original movie via a post-production program. The post-production film formed by the grouping material, wherein each modular material is an independently changeable object, and may be a pseudo-real pattern or a drawn pattern, combined with the original film to achieve a virtual and real integration effect. The post-production film is interactive by the user with a computer device, so that the film with the mirror can also have an interactive effect.

In particular, the method considers that the image elements in the original film are changed in the camera movement, so that the modular components placed in the middle film can reasonably exist in a real film. The moving mirror refers to the change of the position of the camera lens when the photographer takes the original film. There are several ways of mirroring, such as zooming in and out, which will be enlarged or reduced together with the image object. Variation, in the present invention, the post-assembly of the modularized member is also synchronized with a zoom in or zoom out; the mirror includes a longitudinally varying dolly, which also causes the captured image object to be magnified or In the present invention, the modularized member placed in the post-production system also has a synchronous change effect; the mirror has a laterally-changing method of a trump and a pan, which causes the The image of the image is changed in translation. Similarly, the module material that is placed in the rear will also have a synchronous translation change; the mirror has a tipping technique, mainly because the camera body does not change, but moves up and down. The lens captures the image. When the image object changes up and down, the module material in the image will also change synchronously; the pedestal in the mirror will move up and down along with the camera, so that the imaged object is also generated. In the same way, the modularized parts placed in the post-production system will also have the effect of synchronous change; the mirror also has an arc-shaped change mode of the arc mirror (arc), and the modularized parts placed in the post-production system will also have The effect of synchronous changes.

It is mentioned here that the post-production technology of the interactive stereoscopic film is based on the perspective reconstruction perspective principle, thereby developing a visual entity interactive technology of the film image, wherein the perspective reconstruction is virtual on the screen. The image, or the solid solid model that enables the virtual image to be projected, can determine that the virtual image is up, down, left or right or on the surface of the solid mold according to the change of the spatial position of the viewer after determining the space and depth position of the viewer. Deep perspective and spatial transformation to match actual spatial perception.

In the interactive stereoscopic film post-production technology adopted by the present invention, in one embodiment, a combination of a traditional real-life film and a filming method such as a mirror, a splicing and a lens language arrangement are used in the perspective reconstruction technique for the viewer. The interpretation mechanism of spatial and depth position changes is transformed into a tracking of the camera trajectory of the film. Through the real scene of the film, the objective cognition and judgment of the three-dimensional object shape are generated, so that the reshaped three-dimensional model and the three-dimensional object in each moving frame are superimposed with low error. In the post-production process, the real shot film can be used as a base, and the software can track the scene space in the actual movie and inversely calculate the camera tracking.

For a schematic diagram of an embodiment of an interactive film embodiment implemented by the stereoscopic image object interaction method of the present invention, reference may be made to FIG. 1A and FIG. 1B.

1A shows an image object displayed in a movie on a computer device, including a physical object 10, which is shown as a building, and the structure described by the physical object 10 presents a visual angle when photographed, and may Because of the relationship of the mirror when the solid object 10 is photographed, another visual angle as shown in FIG. 1B is displayed.

Because of the image objects in the film, the building of this kind will change the position in the film and the visual angle because of the change of the film, so the image object can be positioned by designing multiple anchors. The anchor points 111, 112, 113, 114, 115, 116, 117, 118, 119, 120 and 121 and the like are shown in the figure.

This example shows that the building (the physical object 10) was originally taken in an original film. After the post-production process, a plurality of modularized parts 101, 102 and 103 are placed in each floor of the building, and the interaction is designed to change ( The modularized members 104, 105, 106, such as falling, each of which is a separate image object. The variation of the module formations 104, 105, 106 may be caused by the user operating an interactive component 12 to move in the subsequent film. According to the set rules, when the rule is met, some of the module formations 104, 105, 106 are changed.

In this example, the anchor points 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121 are some identification locations for describing the physical object 10(s), which are also used as reference points for the post-assembly of the module formations 101, 102, 103, 104, 105, 106. According to one embodiment, in a post-production software, an original movie is first introduced, and an anchor point 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121 for positioning one or more physical objects 10 is designed in a dynamically changing movie by using a software tool, and then these tools are used as software tools. The point is modeled as a reference point, and the module formation is placed at a specific position, and has a reference positional relationship with a plurality of anchor points in the original movie. Therefore, when there is a change in the movie, the physical object 10 is also changed, and the modularized members 101, 102, 103, 104, 105, 106 placed according to the reference position relationship are also changed accordingly.

The interactive component 12 is one of the interfaces for providing user interaction, and the interactive component 12 can be a visible pattern for the user to operate by input means such as touch, voice control, body sense or mouse (or keyboard), and can include any The means for controlling the interactive component 12 can be interacted with the modularized components 101, 102, 103, 104, 105, 106 in the post-production film via the interactive component 12, such that the modularized components 104, 105 and 106 are subject to collision by the interactive component 12 if they meet certain rules. That is, subsequent interaction changes, such as dropping, popping, or being moved to other locations. In another embodiment, the interactive component 12 can refer to a range of operational signals that the user touches or utilizes the mouse to generate an interactive change when the range interacts with the modularized components 101, 102, 103, 104, 105, 106 in accordance with certain rules.

The software program behind it is an image processing program that calculates the changes of each set image in the movie, such as the action of the interactive component 12 in the post-production movie, and can detect the components in the interactive component 12 and the post-production movie. An interactive positional relationship of the chemical components 101, 102, 103, 104, 105, 106. When the interactive positional relationship corresponding to one or more modularized components enters an interactive range set by the system, the system generates an interactive signal, and then combines the post-production video with a software tool. The component 12, and an image corresponding to the interactive signal (such as a change in the modularization), form an interactive film.

Figure 1B is then schematically shown in the same movie that the aforementioned physical object 10 presents another visual angle due to the change in the mirror when recording, this illustration shows the same building as shown in Figure 1A, because of the different vision produced by the mirror during film production. The angle also shows the user's operation of the interactive component 12. The user can control the action of the interactive component 12 on the post-production film through touch or voice input, or a mouse or a keyboard, and the body provided by the mobile device. Sensing means (such as using an accelerometer) controls the variation of the interactive element 12.

The legend shows that the position of the modularized piece is set to the relative position between the anchor points on the physical object 10, and can still be located at the originally set relative position when the film changes, regardless of the mirror, the modularized piece It is also always set in the relative position to the physical object 10. At the same time, in the interactive mode, corresponding changes are also made due to the movement of the interactive element 12, such as bounce or fall due to a collision.

It is worth mentioning that when preparing the original film, the original film itself may already contain the three-dimensional space information, or the object is already a three-dimensional object, thus obtaining the spatial information; or the original film does not carry the three-dimensional space. Information, but from which the space information can be obtained from the mirror, including the use of a virtual camera to apply the movement trajectory when shooting, thereby calculating the spatial information, that is, the spatial relationship between various objects in the film, so that the post-production time is placed When interacting with components, it is more in line with the visual sense of space. Finally, post-production movies become videos that provide users with instant interaction.

According to an embodiment of the invention, the above-mentioned three-dimensional image object interaction method is mainly implemented by a software means in a computer device, wherein the computer object device can be directly operated by a specific software program in the user-side computer device, such as the above-mentioned image object interaction, so that the user operates the computer device. Operate interactive components in post-production movies to create an interactive screen that can then be recorded as a new interactive video. Another embodiment of the architecture of the stereoscopic image object interactive system of the present invention shown in FIG. 2 is implemented.

The figure shows the software program of the stereoscopic image object interaction system about the server-side hardware device (the cloud server 21, the database 23) and the terminal device 25 installed at the user terminal, and the terminal device 25 uses the network 20 and the cloud server. The connection 21 shows the post-production movie 251 provided by the cloud server 21. This example shows that the user can watch the post-production movie 251 on the terminal device 25 and interact with the image in the post-production movie 251 by touch. In particular, a modular module that can be changed is placed via a post-production program.

The cloud server 21 can provide a multi-person interactive service, and the terminal device 25 obtains the post-production movie 251 that has been created by the system via the network 20, and performs the modularization in the interactive component and the post-production movie 251 as shown in the above embodiment. The action of the object interaction. The interactive process can be recorded by the software program in the terminal device 25 during the execution of the interactive process to form the final interactive movie. The cloud server 21 can also provide a service for storing interactive videos completed by the user terminal or a platform service for sharing videos between different users.

The cloud server 21 is provided with a database 23, which can store one or more original movies, or includes a material for providing post-production, such as the module material for providing a post-production movie, in addition to forming a film that can be interactively interacted with. And can store one or more videos that have been completed. For related function modules, reference may be made to the embodiments of the functions and circuit units of the respective ends of the stereoscopic image object interactive system of the present invention shown in FIG.

This example shows a cloud server 30, which functions as a computing host, and is provided with an arithmetic unit 301, such as a processor in a computing host or a functional module in which software and hardware cooperate to perform a specific computing operation; and a memory unit 303 is provided. The memory or the storage medium in the computing host is used to temporarily store the data required for the operation process and the operation result; the computing host is provided with a communication unit 305 for communicating with the external device. The cloud server 30 is provided with a database 32. The database 32 provides video related materials, including an original movie library 321, a module material library 323 and a post-production movie library 325.

The movie stored in the original movie library 321 includes a movie for recording a real image, but does not exclude a manually completed animation. The module material library 323 stores the material for providing the original film, especially the stereoscopic graphic or the immersive pattern, which can be appropriately embedded in the film recorded in the real environment. The post-production movie library 325 stores the movies that have been completed.

The terminal device 34 is a computer device of the user terminal, and is provided with a processing unit 341, which may be a processor in the computer device; a memory unit 342 may be used as a memory or a storage medium in the computer device; and a communication unit 343 may be provided. The network and the like communicate with the external device in two-way communication, including the data transmission; and the input unit 344 is provided, which is to provide the user with the specific means to perform the input on the terminal device 34, and can be implemented by software and hardware, such as executing the image proposed by the present invention. The interaction includes controlling the interactive elements displayed on the post-production film by means of input, such as touch, voice control, body feeling or using a mouse, a keyboard, etc. (not limited to the manner described herein); One of the purposes of the display screen on the terminal device 34 is to display a movie.

FIG. 4 is a flow chart showing an embodiment of the stereoscopic interactive film post-production method of the present invention. In this embodiment, one of the ways of making a post-production movie is described.

Beginning with step S401, the user can provide an original movie via the system, or be obtained by others, or the original film obtained by himself, especially a real-world image. In order to achieve the interactive purpose of virtual reality, this is one of the purposes of the present invention, allowing users to perform interactions on a conventional movie that is traditionally unable to implement interaction.

Then, in step S403, the original movie is opened by using a specific software program executed on the computer device (including the cloud server), and multiple anchor points describing one or more physical objects in the movie can be set through the software tool. When the trace is set, the function of the trace is to let the software tool confirm the relationship between the attached position and the image after the image processing, so that even if the movie changes due to various mirrors, it can locate the description of the trace. The physical object can also determine the angular change of a physical object in which the plurality of anchor points are described according to the mirror of the original film.

Then, in step S405, the user can determine the position of the module by using the software tool, and the software tool will use one or more points set in the original film as reference points, that is, each module and the original film. The plurality of anchor points have a reference positional relationship to position the module.

According to an embodiment, each modular material can be a stereoscopic image object. With the aid of the software tool, it can be known from the change of the specific object in the original film that the stereoscopic information can be obtained as the viewing angle of the moving object changes. According to the setting and angle of the physical object, the stereoscopic image object can be placed into the original film according to the angle of the original film when the original film is recorded, so that the stereoscopic image object has a spatial angle consistent with the original film, so that it can be properly placed. In the same spatial relationship with the image.

In step S407, the module components that determine the reference position relationship may change according to the change of the movie. After a 3D software process, the additional three-dimensional object is in the same spatial relationship with the structural object in the original movie, according to the original film. Judging the movement trajectory of the camera when shooting, and reflecting the movement trajectory of the physical object therein, it can be set according to the setting, when the operation is instantaneous, the movement trajectory of one or more modular slabs, or other simulation or physical changes. In step S409, the virtual camera is used to apply the moving trajectory during shooting, and the interactive module material is created in the original movie to form an interactive post-production film combining the original film and the modular material. In step S411, this is provided. An interactive video that users can manipulate instantly.

After the real-time interactive post-production movie is completed, in addition to the general terminal device, it can be stored in the cloud database, and the cloud server provides each terminal device to download, so that the user can operate the terminal device to perform interaction.

FIG. 5 shows a flow of an embodiment of a method for interacting a stereoscopic image object of the present invention.

Initially, in step S501, the software program running on the terminal device first obtains the post-production movie, and after parsing through the software program, in step S503, the position information of the module product in the post-production movie can be obtained, as the video is played, except The software module can be used to directly track each module by using an image processing method, and the relative position of the module can be tracked by using the anchor point set in the post-production movie. Moreover, with the completion of the post-production film, some interactive conditions can be set in the software program, such as setting an interactive reaction and range parameters, and the interaction range is a preset between the interactive component and the module component in the post-production movie. The range of distances for interactive signals.

At this time, in step S505, the user can operate the movie to provide an interactive component for the user to operate the interactive component by means of touch, voice, body, mouse or keyboard, and the interactive component can be a display screen displayed on the terminal device. On, and controlled to produce a graphic of positional movement. In another embodiment, the interactive component may be an action generated by the user directly after being touched, voiced, sensed, mouse, or keyboard, and interacts with the modularized component in the post-production film, thereby Generate interactive images. The user interface (such as a touch panel) that the system can provide receives motion information of the user operating the interactive component on the terminal device in the post-production movie.

In step S507, the action information generated by the above interaction may be received by the terminal device or transmitted to the cloud server, and when the cloud server receives the action information of the user operating the interactive component in the post-production movie, and as shown in step S509, The operation of the interactive component in the post-production movie. At this time, the software program executed by the terminal device or the cloud server receives the information of the action of the interactive component in the subsequent movie, and then, as in step S511, the interactive component and the module are detected. The interactive positional relationship of the chemical member and determining whether the interactive positional relationship enters the set interactive range (step S513).

If not, then returning to step S507, the software program executed in the terminal device or the cloud server continues to determine whether or not the interaction is triggered based on the received interactive information.

If yes, it is determined that the interactive component enters the interaction range according to the interaction position relationship and the change of the interaction scope, that is, when the interactive positional relationship between the interaction component and the modularized component in the post-production movie conforms to the interaction range, The interactive signal can be triggered to enable the terminal device or the cloud server to provide an interactive image according to the interactive signal, including an animation linked to the module, and generate an interactive image in step S515.

Finally, in step S517, the images (original movie, modular material, interactive components, etc.) displayed at this time can be recorded to form an interactive movie on the terminal device.

It is worth mentioning that when the above program is run by the cloud server, that is, the cloud server uses its software program to calculate the action of the interactive component in the post-production movie, and when it meets the condition of triggering the interactive image, an interaction is generated. The signal, at this time, the interactive signal will be transmitted to the terminal device, and the terminal device triggers the action of the module compound (as shown in FIG. 1A and FIG. 1B shows the dropped module material) to form an interactive film.

According to an embodiment, when the user operates the interactive component, the software program running in the terminal device or the cloud server will grasp the movement of the interactive component in the subsequent movie, and the moving track will cover a moving area. For example, when the image of the module is touched, the image of the module is judged to touch the moving area, and the collision condition is met, and the interactive signal is triggered.

In another embodiment, if the condition for triggering the interactive signal is not a collision (the range of interaction is 0), a range affected by the interactive component can be set (the range of interaction is equal to a distance), so that between the modularized component and the interactive component After the distance enters this interaction range, an interactive signal is triggered.

Therefore, in the interactive method of the stereoscopic image object disclosed in the disclosure book, a film for recording the real world is prepared, and after the post-production process, one or more modularized pieces are placed in the middle, so that the user can make a film in the film. Operating an interactive component, the computer is the action of the interactive component in the post-production movie, such as the movement track. When it is detected that the interactive position relationship between the interactive component and the module component in the post-production movie enters an interactive range, it can correspond Produce an interactive picture to achieve the effect of performing interactions in a general flat film, and achieve the purpose of realism after the virtual and real integration.

However, the above description is only a preferred embodiment of the present invention, and is not intended to limit the scope of the present invention. Therefore, equivalent structural changes that are made by using the specification and the contents of the present invention are equally included in the present invention. Within the scope, it is combined with Chen Ming.

Claims (10)

 A stereoscopic image object interaction method includes: receiving motion information of an interactive component in a post-production movie, wherein the post-production movie includes an original movie and one or more modular material pieces are inserted through a post-production program. Each of the module formations has a reference positional relationship with a plurality of anchor points in the original movie, wherein the plurality of anchor points describe at least one physical object; and an operation of the interactive component in the post-production movie is performed to detect the An interactive positional relationship between the interactive component and each of the modularized components in the post-production film; and when the interactive positional relationship corresponding to the modularized component enters an interactive range, generating an interactive signal, the post-production film combining the interactive component An image that provides an instant interaction with an image of the corresponding interactive signal.    The stereoscopic image object interaction method according to claim 1, wherein the interactive component is displayed on a display screen of a terminal device, and is a graphic for moving the position by receiving touch, voice control, somatosensory control or mouse control.    The stereoscopic image object interaction method according to claim 1, wherein the stereoscopic image object interaction method is executed by a software program executed on a terminal device, and the interactive movie is formed on the terminal device.    The stereoscopic image object interaction method according to claim 1, wherein the stereoscopic image object interaction method is executed by a software program executed by a cloud server, and after the interaction signal is generated, the interaction signal is transmitted to a terminal device. Forming the interactive movie on the terminal device.    The method of interacting with a stereoscopic image object according to any one of claims 1 to 4, wherein the interaction range is a range of distance between the interactive component and the modular material that is preset to cause the interactive signal.    The method for interacting a stereoscopic image object according to claim 5, wherein each of the modularized components is a stereoscopic image object, and the stereoscopic image object is placed in the original film according to the angle of the mirror when the original film is recorded, so that the stereoscopic image is The image object is displayed with a consistent spatial angle to the original movie.    The method of interacting with a stereoscopic image object according to claim 6, wherein the image corresponding to the interactive signal is an animation coupled to the modular material.    A stereo interactive film post-production method is a post-production method of a post-production movie provided in the stereoscopic image object interaction method according to claim 1, the method comprising: obtaining an original movie; and operating a mirror according to the original movie Determining an angle change of a physical object described by a plurality of anchor points; according to the setting and angle change of the physical object, one or more modularized parts are placed on the physical object, and each moduleized piece and the original The plurality of anchor points in the movie have a reference position relationship; determining, according to the mirror of the original film, a camera capturing a movement trajectory of the physical object, and setting a movement trajectory of the one or more modularized members; Combining the original film and the one or more modular material pieces moved in the original film to form a post-production movie providing instant interaction.    A stereoscopic image object interaction system, comprising: a cloud server, comprising a database, the database comprising an original film library, a module material library and a post-production movie library for providing a terminal device display Forming a video, by operating a user interface to perform an interaction on the post-production movie, the cloud server performs a stereoscopic image object interaction method, the method comprising: receiving an interactive component from the terminal device in the post-production movie Action information, wherein the post-production movie includes an original movie and one or more modular material pieces are inserted through a post-production program, and each of the module-forming pieces has a reference positional relationship with a plurality of anchor points in the original film. The plurality of anchor points describing at least one physical object; calculating a motion of the interactive component in the post-production movie to detect an interactive positional relationship between the interactive component and each modularized component in the post-production film; When the interactive positional relationship corresponding to the modularized component enters an interactive range, an interactive signal is generated, and the post-production film is combined with the interactive component to interact with the corresponding component An image of the signal forms an interactive video that is instantly interactive.    The stereoscopic image object interaction system of claim 9, further comprising a software program executed in the terminal device, the software program comprising: providing the user interface for receiving and operating the interactive component on the terminal device The action information of the post-production movie; transmitting the action information to the cloud server; receiving, by the cloud server, the interaction position relationship between the interaction component and the module component in the post-production movie, and determining the relationship The interactive signal generated by the interactive positional relationship entering the interactive range; and the image combined with the post-production film, the interactive component and the corresponding interactive signal to form the interactive video that can be instantly interacted.