KR20230029130A - Apparatus and method for creating dynamic, live-type metaverse virtual interior space - Google Patents

Abstract

The present invention relates to a device for generating a liveliness/live-type metaverse virtual interior space composed of a field photographing mobile robot module (100), a metaverse virtual interior space generation control module (200), and a metaverse driving MR module (300). It is possible to provide a Korean-style metaverse virtual interior space generation device which can variously implement a cafe-type metaverse, a party-type metaverse, a photo spot-type metaverse, and a concert/musical performance-type metaverse which require liveliness and live. Provided are the device and method for generating a liveliness/live-type metaverse interior space, which can increase the profit generation of the metaverse market by 80%.

Description

Apparatus and method for creating dynamic, live-type metaverse virtual interior space}

The present invention can provide construction companies with a solution that can efficiently capture and virtually manage the construction progress on the metaverse, and can provide a cafe-type metaverse, party-type metaverse, and photo spot-type meta that require liveliness and liveliness. In order to be able to implement a bus, concert/musical performance type metaverse in various ways, 3D with a 360-degree panoramic view by receiving 3D data of the field space filmed while moving the field space where the metaverse is to be implemented. After converting to interior modeling, along with 3D interior modeling with a 360-degree panoramic view to which objects are assigned, a metaverse in which the metaverse is driven in an MR (Mixed Reality) atmosphere A lively and live meta that creates a virtual interior space It relates to a bus virtual interior space generating device and method.

Metaverse, which is an issue these days, is a compound word of virtual, transcendence (Meta), world, and universe, which means the universe and a three-dimensional virtual world that is another dimension. In general, it refers to a life-type and game-type virtual world in which both reality and non-reality can coexist in the overall aspect of culture.

This is a digital data creation of an alternative world that is similar to or completely different from reality. In the virtual world, users perform activities similar to economic and social activities in the real world through avatars.

The virtual world is the most familiar form of metaverse to us, a concept that collectively refers to communities implemented in a 3D computer graphic environment, from online role-playing games such as Lineage to living virtual worlds such as Second Life developed by Linden Lab. am.

As part of the metaverse, many technologies that provide information related to indoor buildings using virtual reality are being provided.

As a prior art, Korean Patent Publication No. 10-1770648 suggests "a method for providing a virtual indoor experience based on a panorama and a 3D building plan, a portable terminal using the same, and a method for operating the same," It takes a long time to acquire and create panoramic photo images by matching 3D building floor plan coordinate information on the server, and there is no systematic and collaborative metaverse platform module itself, resulting in coordinate information and objects on panoramic photo images. There was a problem in that it was difficult to create a high-quality metaverse virtual interior space because the layout information of was not correct.

In addition, since the metaverse is used only as a static 3D exhibition medium in the virtual interior exhibition space, it weakens the immersion experience of the metaverse that causes an emotional response in the form of empathy and connects the experiencer and the shopping mall. Since there is no system, there was a problem in that accurate spatial information transmission was insufficient.

Above all, in view of the non-face-to-face social background caused by the corona crisis, there is no metaverse technology suitable for this, even though it is necessary to activate industrialization that proceeds as an online form of non-face-to-face reporting of space design information and estimates after the on-site meeting. There is no system development that implements a cafe-type metaverse, a party-type metaverse, a photo spot-type metaverse, a concert/musical performance-type metaverse, and a real-time update metaverse of construction progress that require a bunch, real-time, and liveliness.

Korean Registered Patent Publication No. 10-1770648

In order to solve the above problems, in the present invention, along with 3D interior modeling with a 360-degree panoramic view, through the creation of a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere, visiting a specific site or two-way face-to-face meetings are not required, users can interactively check and share information on the actual space to be applied without space and time constraints, and based on BIM (Building Information Model) data used by experts in the interior and construction industries, And through the metaverse virtual interior space creation control module that the metaverse virtual interior constructors can directly check and experience, the high-quality metaverse virtual interior space made of 3D interior modeling with a 360-degree panoramic view is MR ( It can be provided to consumers as a Mixed Reality) experiential type, and O2O (online-offline) by conducting various activities with characteristics such as "simultaneous" and "real-time" in which interactions occur between metaverse experiencers and offline viewers. A lively and live metaverse virtual interior that can provide marketing effects and can upload 3D interior modeling with a 360-degree panoramic view through the sketchup program engine, which is a systematic and collaborative mode, every 30 to 60 minutes. Its purpose is to provide a space generating device and method.

In order to achieve the above object, the lively and live metaverse virtual interior space generating device according to the present invention

After receiving the field space 3D data taken while moving the field space to implement the metaverse, converting it into a 3D interior modeling with a 360-degree panoramic view, and having a 360-degree panoramic view given an object This is achieved by creating a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere along with 3D interior modeling.

The lively and live metaverse virtual interior space generating device is more specifically,

After filming a 360-degree field space image while moving the field space in the X-axis and Y-axis, a field shooting mobile robot module 100 that transmits the 3D data of the filmed field space to the metaverse virtual interior space creation control module in real time;

After receiving the field space 3D data taken from the field shooting mobile robot module and converting it into a 3D interior modeling with a 360-degree panoramic view, 3D interior modeling with a 360-degree panoramic view given an object, A metaverse virtual interior space creation control module 200 that controls to generate a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere;

It is worn on the head of the metaverse experiencer, linked with the metaverse virtual interior space creation control module, and enters the metaverse virtual interior space based on the online web, providing a visual, auditory, and sensory virtual experience along with the MR (Mixed Reality) atmosphere. It is characterized in that it is composed of the MR module 300 for driving the metabus.

In addition, the method for generating a lively and live metaverse virtual interior space according to the present invention

After taking a 360-degree field space image while moving the field space in the X and Y axes through the field shooting mobile robot module, real-time transmission of the filmed field space 3D data to the metaverse virtual interior space creation control module (S100 )and,

Receiving the 3D data of the field space taken from the field shooting mobile robot module through the sketchup program engine of the metabus virtual interior space creation control module and converting it into 3D interior modeling with a 360 degree panoramic view (S200); ,

In the metaverse platform control unit of the metaverse virtual interior space creation control module, a 360-degree panoramic view ( Controlling the platform so that the metaverse formed by 3D interior modeling with View is driven (S300);

After placing 3D interior modeling with a 360-degree panoramic view through the MR-type metaverse virtual interior space control unit of the metaverse virtual interior space creation control module in the field space to be implemented as a metaverse, the physical environment and the virtual digital environment Controlling to generate a metaverse virtual interior space having an MR (Mixed Reality) atmosphere by overlapping (S400);

Through the MR module for driving the metaverse, while interlocking with the metaverse virtual interior space creation control module, entering the metaverse virtual interior space and experiencing the visual, auditory, and sensory virtual experience with the MR (Mixed Reality) atmosphere (S500) It is achieved by making

As described above, in the present invention

First, with 3D interior modeling with a 360-degree panoramic view, through the creation of a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere, there is no need to visit a specific site or have a two-way face-to-face meeting, It is possible to interactively check the actual space to be applied and share information without space and time constraints, thereby narrowing the gap in understanding of interior design between companies conducting projects or between companies and consumers, and expressing practical spaces. It enables more detailed design checks and preliminary design corrections, reducing construction costs due to various errors, providing high-quality results to companies and consumers, and improving satisfaction and quality of results by 80% compared to before. there is.

Second, based on the BIM (Building Information Model) data used by experts in the interior and construction industries, through the metaverse virtual interior space creation control module that consumers and metaverse virtual interior constructors can directly check and experience, 360 A high-quality metaverse virtual interior space made of 3D interior modeling with a panoramic view can be provided to consumers in the form of MR (Mixed Reality) experience, thereby creating an emotional response in the form of empathy. The immersion experience rate and active participatory experience can be increased by 2 to 4 times compared to before.

Third, it is possible to provide O2O (online-offline) marketing effects by conducting various activities with characteristics such as "simultaneous" and "real-time" in which interactions between metaverse experiencers and offline viewers occur, and events, items Acquisition can satisfy the psychology of compensation, and through emotional interaction, emotional sympathy can be improved by 80%.

Fourth, 3D interior modeling with a 360-degree panoramic view can be uploaded every 30 to 60 minutes through the sketchup program engine, which is a systematic and collaborative mode. It can provide a solution that can efficiently capture and manage virtually, and above all, a cafe-type metaverse, a party-type metaverse, a photo spot-type metaverse, and a concert/musical performance-type metaverse that require liveliness and liveness. It is possible to provide a Korean-style metaverse virtual interior space generating device that can be implemented in various ways, thereby improving the profit generation of the metaverse market by 80%.

1 is a configuration diagram showing the components of a lively and live metaverse virtual interior space generating device according to the present invention;
2 is an embodiment showing the components of a lively and live metaverse virtual interior space generating device according to the present invention;
3 is a configuration diagram showing the components of a field shooting mobile robot module according to the present invention;
Figure 4 is a perspective view showing the components of the field shooting mobile robot module according to the present invention;
5 is a configuration diagram showing the components of a metaverse virtual interior space generation control module according to the present invention;
6 is a configuration diagram showing the components of the sketchup program engine unit according to the present invention;
7 is an embodiment of a live action image captured by some of the field space 3D data taken by the field shooting mobile robot module according to the present invention;
8 is an embodiment of a 3D interior modeled through a sketchup program engine unit according to the present invention;
9 is a configuration diagram showing the components of the metaverse platform control unit according to the present invention;
10 is a configuration diagram showing the components of the MR-type metaverse virtual interior space control unit according to the present invention;
11 is a configuration diagram showing the components of an MR module for driving a metaverse according to the present invention;
12 is an embodiment showing the components of an MR module for driving a metaverse according to the present invention;
13 is a metaverse virtual where the metaverse is driven in an MR atmosphere along with 3D interior modeling with a 360-degree panoramic view while interworking with the metaverse virtual interior space generation control module through the MR module for driving the metaverse according to the present invention. An embodiment showing experiencing the interior space,
14 shows a URL address that can link the metaverse virtual interior space completed with SNS, mail, and text through the meta event listener (MetaEventListener) according to the present invention, and connects to the metaverse virtual interior space. After checking whether the design is suitable for the metaverse virtual interior space, if the modifications are fed back, an embodiment showing the process of modifying the modifications to the metaverse virtual interior space,
15 is an embodiment showing that a 1:1 furniture sales shopping mall URL address is linked to furniture among specific objects in the metaverse through a metaevent listener unit according to the present invention;
16 is a flow chart showing a method for generating a lively and live metaverse virtual interior space according to the present invention;
17 is a 3D interior modeling with a 360-degree panoramic view generated through the sketchup program engine in the metaverse platform control unit of the metaverse virtual interior space creation control module according to the present invention, and setting an event A flowchart specifically showing that the platform is controlled so that the metaverse formed by 3D interior modeling with a 360-degree panoramic view is driven.

Hereinafter, a preferred embodiment according to the present invention will be described with accompanying drawings.

1 relates to a configuration diagram showing the components of a lively/live type metaverse virtual interior space generating device according to the present invention, and FIG. 2 is a configuration of a lively/live type metaverse virtual interior space generating device according to the present invention. It relates to an embodiment diagram showing elements, which receives field space 3D data taken while moving the field space to implement the metaverse, converts it into 3D interior modeling with a 360-degree panoramic view, It is configured to create a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere, along with 3D interior modeling with a 360-degree panoramic view to which objects are assigned.

The lively and live metaverse virtual interior space generating device (1) is more specifically, a field shooting mobile robot module 100, a metaverse virtual interior space creation control module 200, a metaverse driving MR module 300 consists of

First, the field shooting mobile robot module 100 according to the present invention will be described.

The field shooting mobile robot module 100 moves the field space in the X-axis and Y-axis, takes a 360-degree field space image, and transmits the filmed field space 3D data to the metaverse virtual interior space creation control module in real time play a role

Here, the field space 3D data includes all 360-degree image data and 360-degree real-life images of up, down, left, and right.

As shown in FIG. 3, it consists of a mobile robot body 110, a 360 degree rotation camera 120, a wireless communication unit 130, a battery unit 140, and a mobile robot control unit 150.

The mobile robot body 110 consists of a body equipped with a moving means, and serves to protect and support each device from external pressure.

As shown in FIG. 4, a 360 degree rotation camera unit is formed on one side of the top, a wireless communication unit is formed on one side of the 360 degree rotation camera unit, a battery unit is formed on one side of the wireless communication unit, and a mobile robot control unit is formed on one side of the battery unit. is formed

As the moving means, any one of a moving wheel structure, a track rail structure, and a quadrupedal robot structure is selected to move the field space in the X axis and the Y axis.

The 360-degree rotation camera unit 120 is located on one side of the upper end of the mobile robot body, and rotates 360 degrees to take a 360-degree video of the field space or rotate 360 degrees to capture a 360-degree real-life image of the field space. do.

The wireless communication unit 130 is located on one side of the 360-degree rotating camera unit and serves to perform two-way data communication by connecting a metaverse virtual interior space generation control module located at a short distance or a long distance through a wireless communication network.

Here, the wireless communication network is formed by selecting any one or two or more of a WiFi communication module, a short-distance wireless communication module, and a mobile communication (5G, 4G, 3G) module.

The battery unit 140 serves to supply power to each device.

This is configured by selecting any one of a lithium ion battery and a lithium polymer battery.

The mobile robot control unit 150 converts 360-degree video data and 360-degree real-life images captured by the 360-degree rotation camera unit into field space 3D data through high-precision laser scan control while controlling the overall operation of each device, It serves to control real-time transmission to the metaverse virtual interior space creation control module.

According to the control signal transmitted from the metaverse virtual interior space generation control module, it outputs a movement output signal toward the mobile robot body while periodically moving the field space where the metaverse is to be implemented by time and location, or Outputs an image capture signal toward the 360-degree rotating camera unit.

The real-time transmission refers to real-time transmission according to a pre-programmed time while forming a two-way data communication network with the data transmission and reception unit of the metaverse virtual interior space creation control module.

In this way, through real-time transmission of field space 3D data under the control of the mobile robot control unit according to the present invention, it is possible to transmit field space 3D data to the metaverse virtual interior space creation control module, so that construction companies can be informed of the progress of construction. It can provide a solution that can efficiently capture and manage virtually on the bus, and above all, a cafe-type metabus, a party-type metaverse, a photo spot-type metaverse, and a concert/musical performance-type meta that require liveliness and liveliness. Buses can be implemented in a variety of ways.

Next, the metaverse virtual interior space creation control module 200 according to the present invention will be described.

The metaverse virtual interior space creation control module 200 receives the field space 3D data taken from the field shooting mobile robot module, converts it into a 3D interior modeling with a 360-degree panoramic view, and then provides 360-degree objects. Along with 3D interior modeling with a panoramic view, it plays a role in controlling the creation of a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere.

Here, the metaverse virtual interior space includes not only the range of virtual interior spaces including indoor desks, bookshelves, and furniture displayed on the metaverse, but also virtual interior spaces including outdoor roads, sidewalks, and alleys displayed on the metaverse. It includes all of the scope, and refers to everything that decorates and beautifies the metaverse.

The metaverse virtual interior space creation control module 200, as shown in FIG. It consists of an interior space control unit 240.

[Data transmission/reception unit 210]

The data transceiver 210 receives the field space 3D data captured from the field shooting mobile robot module moving in the field space, transmits it to the sketchup program engine unit, moves to the field space toward the field shooting mobile robot module, or image It plays a role in transmitting a control signal for photographing.

This includes a wireless communication network.

Here, the wireless communication network is formed by selecting any one or two or more of a WiFi communication module, a short-distance wireless communication module, and a mobile communication (5G, 4G, 3G) module.

[Sketchup program engine unit 220]

The sketchup program engine unit 220 serves to generate 3D interior modeling with a 360-degree panoramic view by sketching up the field space 3D data received from the data transmission unit.

It has the characteristic of 3D interior modeling with a simple interface.

That is, it consists of a basic tool engine, a drawing tool engine, an editing tool engine, a building tool engine, a camera tool engine, and an Enscape renderer program engine.

And, as shown in FIG. 6, it is composed of a 3D BIM (building information modeling) engine 221 and an Enscape render program engine 222.

In the present invention, 3D interior modeling is primarily formed so that metaverse experiencers can perceive a sense of immersion similar to reality through visual scenes on the metaverse.

Accordingly, it is configured to design 3D interior modeling based on texture mapping by referring to images of the real world based on the 3D BIM (Building Information Modeling) engine 221 according to the field space to implement the metaverse.

Here, the 3D BIM (Building Information Modeling) engine 221 plays a role in converting the information implemented in 2D CAD into a 3D three-dimensional design through building information modeling, and converting all information related to architecture into a DATA base and linking them.

This is a concept of designing and constructing a building in advance in the 3D metaverse, and each process is databased to provide all the information you want to know, such as estimates, construction schedules, and processes.

As a result, since the existing construction site designs only with 2D CAD, problems in the design are identified during construction, resulting in enormous costs and time for re-construction or design change. As a countermeasure, 3D BIM (Building Information Modeling) If converted to 3D three-dimensional design (BIM) through the engine, it has the advantage of being able to extract costs in advance.

In addition, you do not need to visit a specific site or have a two-way face-to-face meeting, and you can interactively check the space to be actually applied and share information without space and time constraints. As a result, companies and companies conducting projects, or companies and consumers By narrowing the gap in understanding of interior design between people and enabling more detailed design checks and preliminary design corrections through the expression of practical space, it is possible to reduce construction costs due to various errors and provide quality results to companies and consumers. Satisfaction and quality can be improved by 80% compared to the existing ones.

Figure 7 relates to an embodiment of a live action image capturing some of the field space 3D data taken by the field shooting mobile robot module according to the present invention, Figure 8 is a 3D interior through the sketchup program engine unit according to the present invention It also relates to an embodiment of what is modeled.

The sketchup program engine unit 220 is manufactured by adding a 360-degree panoramic view to the 3D interior modeling secondly through the Enscape renderer program engine 222.

This adds a 360-degree panoramic view to 3D interior modeling, and can easily save and load through object serialization while directly modifying and editing the map.

Through this Enscape renderer program engine, it is possible to express a 360-degree panoramic view and free space movement on the metaverse in a lively and realistic way.

In addition, among the specific objects of 3D interior modeling, the material values of the finishing materials are set for the constituent objects on the metaverse, such as buildings, roads, interior items, furniture, trees, accessories, cars, signboards, and information signs, so that they are lively and realistic. can

In addition, the sketchup program engine unit 220 produces a 3D interior modeling with a 360-degree panoramic view as a metaverse EXE executable file through the Enscape renderer program engine, so that MR-type metaverse virtual interior forwarded to the space controller.

The sketchup program engine unit creates a field space to be implemented as a metaverse through 1:1 independent work mode as well as 1:N collaborative work mode through 3D interior modeling with a 360-degree panoramic view.

Here, the 1:N collaborative work mode is to create a 3D interior modeling with a 360-degree panoramic view by dividing and dividing the metaverse virtual interior space by company that creates the metaverse, automatically saving it, and combining it at once. say work

As such, in the present invention, since the sketchup program engine unit is driven in 1:N collaborative work mode, 3D interior modeling with a 360-degree panoramic view can be uploaded to the MR metaverse virtual interior space control unit in real time as programmed, As a result, it is possible to provide construction companies with a solution that can efficiently capture and virtually manage the construction progress on the metaverse, and above all, activities that form human relationships while playing that require simultaneous, real-time, and liveliness. It is possible to implement a cafe-type metaverse, a party-type metaverse, a photo spot-type metaverse for taking pictures, and a concert/musical performance-type metaverse.

Here, the programmed real time does not mean 1 minute or 1 second, which is the same as the actual running time, but means a period of 30 minutes to 60 minutes similar to the actual running time.

The reason is that even if the field space 3D data captured from the field shooting mobile robot module is received as an immediate response and the sketchup program engine part is driven in 1:N collaboration work mode, about 30 to 60 minutes of time passes, The concept of programmed real-time is set to a period of 30 to 60 minutes similar to the actual running time.

[Metabus platform control unit 230]

The metaverse platform control unit 230 assigns an object to the 3D interior modeling with a 360-degree panoramic view generated through the sketchup program engine unit, sets an event, and creates a 3D interior model with a 360-degree panoramic view. It serves to control the platform so that the metaverse formed by interior modeling is driven.

Here, that the metaverse formed by 3D interior modeling with a 360-degree panoramic view is driven means that any one of the online web, webVR, application, and webMR is selected and driven.

As shown in FIG. 9, this includes a MetaJFrame unit 231, a MetaAnimator unit 232, a MetaClip unit 233, a MetaVisitor unit 234, It is composed of a MetaGRF unit 235, a MetaEventListener unit 236, and a network meta connection unit 237.

First, the metaJFrame unit 231 according to the present invention will be described.

The MetaJFrame unit 231 is a class that inherits the JFrame Class of the open graphic library (OpenGL), and mainly controls the full screen of the metaverse, or a UI (User Interface) component ( It serves as a container (a place to contain components) of components such as buttons.

Second, the meta animator unit 232 according to the present invention will be described.

The meta animator unit 232 is a class that manages a metaverse thread that represents a unit of a program that can be processed simultaneously with the frame rate, and a class that manages the metaverse frame rate and various threads. play a role

This is configured to use both a fixed frame, which is a method performed by fixing a certain time, and a variable frame, which indicates a method performed according to the amount of processing.

In addition, it plays a role in managing network synchronization (a method of maintaining the same status of different metaverses in the network).

The frame rate refers to the rate at which a display device displays data on one screen. This indicates frames per second (fps), which is the number of frames output to the screen per second.

Third, the meta clip unit 233 according to the present invention will be described.

The MetaClip unit 233 serves as a top-level abstract class for defining objects on the metaverse.

Here, the top-level abstract class is designed using the Composite pattern of design patterns.

In other words, when you want to create an object in the metaverse, if you inherit the Clip class, it becomes a class that can be used directly in the metaverse engine, which is a very simple configuration to define a new class.

In addition, data structures such as various Linked Lists, Arrays, Maps, and Hash Tables are managed through a class that inherits from Clip into the desired data structure as needed. can do

The object definition is a part that defines objects such as buildings, roads, interior props, furniture, trees, accessories, cars, avatars, signboards, information signs, landmarks, etc. on the metaverse, and in the metaverse through the metaclip. Define the required objects.

Here, the MetaClip unit basically stores the coordinates of the necessary objects and uses the ClipPhysics class to which physical properties are applied to create buildings, roads, interior items, furniture, trees, accessories, cars, and avatar classes. inherit and use

In order to handle the behavior of objects within the metaverse, each behavior unit must be implemented separately for each object's characteristics, which not only increases code complexity but also makes the internal structure inefficient.

To complement this advantage, it is designed to separate the behavioral elements of each process.

The MetaClip part inherits parent objects in the order of the Clip class, ClipSprite class, ClipPhysics class, and Airplane class, and displays the object-oriented metaverse in real time. , can be created lively.

Fourth, the metavisitor unit 234 according to the present invention will be described.

The metavisitor unit 234 serves as an interface for controlling or moving objects on the metaverse.

It has the characteristics of a recursive function, and is configured to make code concise and easy to analyze.

In the MetaVisitor part, the Visitor defines the collision check of the physics engine, speed and acceleration processing, object drawing order definition for user-defined rendering, pathfinding algorithm engine, and metaverse messaging processing into one interface. It serves as an interface that can increase code reusability.

When the MetaVisitor unit is produced by adding a 360-degree panoramic view to the 3D interior modeling produced in the SketchUp program engine unit, the direction and path of movement in the produced 3D interior modeling + 360-degree panoramic view to specify

Here, the movement direction includes not only latitude and longitude values, but also up, down, left and right 3D arrow values. And, the route includes all directions of north, south, east, west, and west.

That is, virtualized visual expression can be performed by designating a movement direction and path to 3D interior modeling + 360-degree panoramic view implemented on the metaverse.

For example, in the case of a guide sign, a 3D arrow and a place name in Korean display are displayed in the air at a crossroads located in the metabus virtual interior space.

In addition, the area occupied spatially by a specific object in the field space to be implemented as a metaverse expresses visual emphasis on the area by utilizing the 3D interior modeling function Off-set.

In addition, a signboard, symbol mark, or brand name is a sign symbolizing a corresponding industry or characteristic within a virtual location marker, and a pictogram and color are mapped to designate a movement direction and a route.

Through this process, the metaverse in which the 3D interior modeling with the 360-degree panoramic view according to the present invention is formed is driven, so that a lively and live feeling like a person moving and walking can be given.

Fifth, the MetaGRF unit 235 according to the present invention will be described.

The MetaGRF unit 235 performs a self-storage role of managing data to store field space 3D data.

In image file processing, it is configured to port the GRF codec to Java without using the API built in Java for high-speed image processing of large quantities as well as one image (still cut) of field space 3D data.

Here, GRF is an indexed image using the LZ77 algorithm, which is a lossless compression algorithm (image with palette information).

In addition, rather than calling and writing all images at once, a method of reading image raster information in real time is used.

This method can eliminate the slowdown when loading not only one image (still cut) but also a large number of images.

Sixth, the meta event listener (MetaEventListener) unit 236 according to the present invention will be described.

The meta event listener (MetaEventListener) unit 236 plays a role of controlling to implement the event on the metaverse after defining the current metaverse event code.

Since fixed frame and dynamic frame rate can be freely applied, it is possible to directly produce code suitable for the metaverse.

This part contains only the codes necessary for the metaverse, so if you serialize the metaevent listener part as an object, any metaverse performs the function of simply implementing the save/load function of the metaverse.

In addition, the meta event listener (MetaEventListener) unit generates a URL address as a subdirectory name of a domain to link the entire metaverse, a part of the metaverse, or a specific object in the metaverse.

In other words, the meta event listener (MetaEventListener) is a shopping mall URL address that sells interior props, furniture, trees, accessories, cars, clothes worn by avatars 1:1 among specific objects in the metaverse, and furniture that sells furniture. A URL address of a shopping mall, a URL address of a shopping mall that sells trees, a URL address of a shopping mall that sells accessories, a URL address of a shopping mall that sells cars, and a URL address of a shopping mall that sells clothes worn by the avatar are created and linked.

As a result, by linking directly to the shopping mall on the metaverse, the metaverse experiencer can buy right away while experiencing the metaverse, or create an atmosphere that wants to buy, thereby increasing the revenue generation of the metaverse shopping market by 2 to 4 times.

14 shows a URL address that can link the metaverse virtual interior space completed with SNS, mail, and text through the meta event listener (MetaEventListener) according to the present invention, and connects to the metaverse virtual interior space, field space After confirming whether the design is suitable for the metaverse virtual interior space, if the modifications are fed back, it relates to an embodiment showing a process of modifying the modifications to the metaverse virtual interior space.

FIG. 15 relates to an embodiment showing that a URL address of a 1:1 furniture sales shopping mall is linked to furniture among specific objects in the metaverse through a metaevent listener unit according to the present invention.

The meta-event listener (MetaEventListener) unit 236 controls to set the viewpoint of driving the metaverse around the consumer IP or user IP.

It consists of a consumer IP viewpoint driving unit and a user IP viewpoint driving unit.

The consumer IP viewpoint driving unit sets the driving viewpoint of the metaverse around the consumer IP.

That is, on the metaverse, the consumer can select the desired object, move to the desired location, set up a chat room centered on the consumer, and connect another network metaverse connected to the network metaconnection centered on the consumer IP.

The user IP viewpoint driving unit sets the driving viewpoint of the metaverse around the user IP. Here, users include virtual interior designers who design and provide virtual interiors requested by consumers on the metaverse, metaverse designers who design and operate the metaverse, and shopping mall operators who operate shopping malls on the metaverse.

That is, on the metaverse, the user can select the desired object, move to the desired location, set up a chat room centered on the user, and connect another network metaverse connected to the network metaconnection centered on the user's IP.

Seventh, the network meta connection unit 237 according to the present invention will be described.

The network meta-connection unit 237 plays a role of performing a function of a chat room method while supporting a network meta-bus by connecting another meta-bus to a network.

This makes it easy to expand and modify the metaverse protocol by using the XML-RPC algorithm engine.

Here, the XML-RPC algorithm engine supports the network and plays a role in performing easy definition and quick implementation of network packets.

It is easy to define and process metaverse packets by defining packet data in XML and calling a remote function module.

The network meta connection unit is configured to perform B2B, B2C, P2P, machine-to-machine (M2M) communication and communication, in addition to a function of connecting another metabus to a network.

As such, the MetaJFrame unit 231, the MetaAnimator unit 232, the MetaClip unit 233, the MetaVisitor unit 234, and the MetaGRF unit 235, the meta event listener (MetaEventListener) unit 236, the meta bus platform control unit consisting of the network meta connection unit 237 is configured to include the meta payment control unit 238.

The meta payment control unit 238 can enter the virtual interior space driven on the metaverse centering on the consumer whose payment has been completed, receive a virtual interior design, enter the shopping mall URL driven on the metaverse, and It is controlled to perform login or intermediary role so that desired object can be purchased.

This is done by selecting any one or two or more of credit card payment, pay payment, point payment, cash payment, mobile phone payment, and virtual currency payment.

The metabus platform control unit according to the present invention is driven as follows.

When the metaverse is driven for the first time, the metaanimator part and the metaJFrame part are driven to create a thread necessary for the metaverse engine and open a window. At this time, it is checked whether the user is a consumer whose payment has been completed through the meta payment control unit.

Subsequently, when the initialization is completed, the part in which the metaverse is actually written is loaded through the metaevent listener part where the metaverse implementation part is actually located.

Then, the variable frame code, fixed frame code, rendering code, etc. defined in the meta event listener (MetaEventListener) are repeatedly called, and through this, objects in the metaverse are controlled, and the open graphic library (OpenGL) is used to The graphic is displayed on the screen and the metaverse is driven.

In addition, the physical processing mode in the metaverse is performed through the following process.

That is, it is defined in the MetaEventListener part and is designed to be continuously called every specific time, and it is simple by applying the Visitor pattern of the MetaVisitor part and the Composite pattern of the MetaClip part. designed to be implemented.

In addition, in the metaverse, it is possible to simply configure a physics engine, and code reuse is possible because the behavior processing part is separated into classes.

For example, classes inherited from the Visitor class can be directly imported and used in another metaverse.

Through this design, it can be effectively reused not only for physics engines, but also for algorithm configurations such as various pathfinding, rendering, and network synchronization.

[MR type metaverse virtual interior space control unit 240]

The MR-type metaverse virtual interior space controller 240 places the 3D interior modeling with a 360-degree panoramic view in the field space to be implemented as a metaverse, and then overlaps the physical environment and the virtual digital environment to create MR (Mixed It plays a role of controlling to create a metaverse virtual interior space with an atmosphere of reality.

As shown in FIG. 10, it is composed of a raw data engine unit 241 and a Unity program engine unit 242.

First, a source file is read from a data format generated from 3D interior modeling with a 360-degree panoramic view through the raw data engine unit 241, and another 360-degree panoramic view It is configured to convert and use the model data of objects (= buildings, roads, interior items, furniture, trees, accessories, cars, avatars) necessary for producing 3D interior modeling.

In addition, it is possible to move, rotate, and resize the scaled model, so that a 3D interior modeling reduced to a scale of 1/300 and a 360-degree panoramic view in the field space can be shared while meeting or collaborating with multiple people. can proceed, and the 3D interior modeling and 360-degree panoramic view are enlarged on a 1:1 scale and reflected in the field situation so that they can be compared.

In addition, through the MR-type metaverse virtual interior space control unit, real space and virtual interior space are mixed and interact with each other, so you can check the properties of objects or the distance between virtual objects and the distance between virtual objects between reality and real space. distance can also be measured.

And, for example, when applied to the remodeling of a building, it is possible to plan by projecting a new device on top of an existing facility, find a usable space behind the wall of an existing structure that is invisible or in the ceiling, and carry out repair and improvement work. Even when performing maintenance after construction, necessary information can be obtained through the accumulated DB based on design data.

In this way, through the creation of a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere, along with 3D interior modeling with a 360-degree panoramic view, there is no need to visit a specific site or have a two-way face-to-face meeting, It is possible to interactively check the actual space to be applied and share information without space and time constraints, thereby narrowing the gap in understanding of interior design between companies conducting projects or between companies and consumers, and expressing practical spaces. It enables more detailed design checks and preliminary design corrections, reducing construction costs due to various errors, providing high-quality results to companies and consumers, and improving satisfaction and quality of results by 80% compared to before. there is.

The MR-type metaverse virtual interior space control unit is configured by including a Unity program engine unit 242.

The Unity program engine unit 242 serves to link the metaverse virtual interior space creation control module in which the MR metaverse virtual interior space is formed and the MR module for driving the metaverse.

As the MR module for driving the metaverse is connected through the Unity program engine, the field space to be implemented as the metaverse becomes the MR graphic of the metaverse and is transmitted to the MR module for driving the metaverse.

In other words, the metaverse experiencer interacts while moving within the metaverse, and two base stations of the MR module for driving the metaverse track the movement of the metaverse experiencer.

At this time, the magnetic sensor works.

In addition, the hand position tracker corresponds to the left and right hand controllers of the metaverse experiencer, and the base station also tracks the movement of both hand controllers.

Through these functions, it recognizes the 3D virtual interior space in the metaverse.

In addition, as the positions of the head, eyes, and hands of the metaverse experiencer are simultaneously tracked, each position is transmitted to the metaverse MR graphic generation control module.

Accordingly, in the metaverse MR graphic generation control module, the metaverse experiencers share visual scenes interacting on the metaverse.

In this way, as the metaverse virtual interior space creation control module and the metaverse driving MR module are mutually interlocked, a metaverse input/output structure is provided, thereby enabling the metaverse experience.

Next, the MR module 300 for driving the metabus according to the present invention will be described.

The MR module 300 for driving the metaverse is worn on the head of the metaverse experiencer, interlocks with the metaverse virtual interior space creation control module, and enters the metaverse virtual interior space based on the online web to create an MR (Mixed Reality) atmosphere It plays the role of virtual experience visually, auditorily, and sensory.

As shown in FIG. 11, it is composed of a base station unit 310, a link box unit 320, an MR type HMD unit 330, and a controller unit 340.

First, the base station unit 310 according to the present invention will be described.

The base station unit 310 tracks and senses the movement of the metaverse experiencer, and serves to transmit the sensed tracking and sensing signal to the MR type HMD unit (Head Mounted Display).

It is composed of a rectangular box-shaped body, and consists of two base stations on both sides of the body, and each base station includes a power adapter.

The two base stations are placed facing each other in both corners.

Each base station has a horizontal field of view of 150 degrees and a vertical field of view of 110 degrees.

The height of the placement is ideal above the height of the head, and more than 2m from the floor is suitable.

Adjust the base station to look down between 30 and 45 degrees to completely cover the play area of the metaverse.

Connect the power cable to each of the two deployed base stations, and plug the adapter into a power outlet.

Then, complete the installation by verifying that the status lights of both base stations are white or green.

Second, the link box unit 320 according to the present invention will be described.

The link box unit 320 serves to interconnect the MR type HMD unit and the metaverse MR graphic generation control module.

It consists of a USB 3.0 cable, a DisplayPort cable, and a power adapter.

Here, the USB 3.0 cable is connected to the USB 3.0 or higher USB port, and the DisplayPort cable is connected to the Holo lens of the MR type HMD unit.

Third, the MR type HMD unit 330 according to the present invention will be described.

The MR-type HMD unit 330 is worn on the head to enter the metaverse virtual interior space and serves to visually, aurally, and sensorily experience the MR (mixed reality) atmosphere.

It is configured with Microsoft's HoloLens included.

Then, one side of the separate cable is connected to the MR-type HMD unit, and the other side is connected to the link box, and the power of the link box is activated.

Fourth, the controller unit 340 according to the present invention will be described.

The controller unit 340 serves to enable and control interactions on the metaverse through manipulation of a touchpad, a trigger, and a grip button.

As shown in FIG. 12, it is operated by being located on the left and right hands of the user, and consists of two grip types.

Each controller is interlocked by being paired with the MR type HMD unit.

And, it is configured to include a vibration unit that generates vibrations according to events on the metaverse.

For example, among the on-site spaces to realize the metaverse, the room scale requires a space where the metaverse experiencers can move freely. The minimum play area size of the room scale is 2m*1.5m, and the maximum metaverse play area size is 6m*6m.

In particular, identify an appropriate location in the site space to place the two base stations.

Hereinafter, a detailed operation process of the method for generating a lively and live metaverse virtual interior space according to the present invention will be described.

16 relates to a flow chart showing a method for generating a lively and live metaverse virtual interior space according to the present invention.

First, after filming a 360-degree field space image while moving the field space in the X and Y axes through the field shooting mobile robot module, the filmed field space 3D data is transmitted in real time to the metaverse virtual interior space creation control module ( S100).

Next, the field space 3D data taken from the field shooting mobile robot module is received through the sketchup program engine of the metaverse virtual interior space creation control module and converted into 3D interior modeling with a 360 degree panoramic view (S200 ).

With the 3D data of the field space received from the data transmission and reception unit through the sketchup program engine unit, sketchup is performed to generate 3D interior modeling with a 360-degree panoramic view.

In other words, 3D interior modeling is primarily formed so that metaverse experiencers can perceive a sense of immersion similar to reality through visual scenes on the metaverse. At this time, 3D interior modeling is designed with a focus on texture mapping by referring to images of the real world based on the 3D BIM (Building Information Modeling) engine to suit the field space to be implemented.

Then, secondly, through the Enscape render program engine in the sketchup program engine unit, a 360-degree panoramic view is added to the 3D interior modeling to produce it.

Then, add a 360-degree panoramic view to the 3D interior modeling, directly modify and edit the map, easily save and load through object serialization, and use Enscape Through the render program engine, a 360-degree panoramic view and free space movement are expressed vividly and realistically on the metaverse.

And, among the specific objects of 3D interior modeling, the material values of the finishing materials are set for the constituent objects on the metaverse, such as buildings, roads, interior items, furniture, trees, accessories, cars, signboards, and information signs.

Next, the metaverse platform control unit of the metaverse virtual interior space creation control module assigns an object to the 3D interior modeling with a 360-degree panoramic view generated through the sketchup program engine unit, sets an event, and The platform is controlled so that the metaverse formed by 3D interior modeling with a panoramic view is driven (S300).

As shown in FIG. 17, this is a class that inherits the JFrame Class of the open graphic library (OpenGL) by driving the MetaJFrame unit 231, and is mainly a full screen (FullScreen) of the metaverse. ), or as a container (place to contain components) of UI (User Interface) components (components such as buttons) (S310).

Subsequently, the meta animator unit 232 is driven, and the class that manages the metaverse thread representing the unit of the program that can be processed simultaneously with the frame rate, and the metaverse frame rate and various Threads are managed (S320).

Subsequently, the MetaClip unit 233 is driven and serves as a top-level abstract class for defining objects on the metaverse (S330).

Subsequently, the metavisitor unit 234 is driven and serves as an interface for controlling or moving objects on the metaverse (S340).

Subsequently, the MetaGRF unit 235 is driven and performs its own storage role of managing data to store 3D data in field space (S350).

Subsequently, the meta-event listener (MetaEventListener) unit 236 is driven, defines the code of the meta-bus event that is actually implemented, and then controls to implement the event on the meta-verse (S360).

Subsequently, the network meta-connecting unit 237 is driven and connects the metaverse to the network to support the network metaverse and performs a chat room-type function (S370).

In addition, as the meta payment control unit 238 is selectively included and configured, it is possible to enter the virtual interior space driven on the metaverse centering on the consumer who has completed the payment, to be provided with a virtual interior design, and to be provided on the metaverse. It is controlled to log in or act as an intermediary so that a consumer can purchase a desired object by entering the driven shopping mall URL.

Next, after placing the 3D interior modeling with a 360-degree panoramic view through the MR-type metaverse virtual interior space control unit of the metaverse virtual interior space creation control module in the field space to be implemented as a metaverse, physical environment and virtual Control to create a metaverse virtual interior space having an MR (Mixed Reality) atmosphere by overlapping the digital environment of (S400).

Finally, as shown in FIG. 13, through the MR module for driving the metaverse, while interlocking with the metaverse virtual interior space creation control module, entering the metaverse virtual interior space, visual and auditory with MR (Mixed Reality) atmosphere Virtually and sensibly experience (S500).

At this time, the Unity program engine unit is driven to link the metaverse virtual interior space creation control module in which the MR metaverse virtual interior space is formed and the MR module for driving the metaverse.

1: Vivid/live metaverse virtual interior space creation device
100: field shooting mobile robot module
110: mobile robot body
120: 360 degree rotation camera unit
130: wireless communication unit
140: battery unit
150: mobile robot control unit
200: Metaverse virtual interior space creation control module
210: data transmission and reception unit
220: Sketchup program engine part
230: metaverse platform control unit
240: MR type metabus virtual interior space control unit
300: MR module for driving metabus

Claims (11)

After receiving the field space 3D data taken while moving the field space to implement the metaverse, converting it into a 3D interior modeling with a 360-degree panoramic view, and having a 360-degree panoramic view given an object Along with 3D interior modeling, a lively and live metaverse virtual interior space generating device characterized in that it creates a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere.
The method of claim 1, wherein the lively and live metaverse virtual interior space generating device
After filming a 360-degree field space image while moving the field space in the X-axis and Y-axis, a field shooting mobile robot module 100 that transmits the 3D data of the filmed field space to the metaverse virtual interior space creation control module in real time;
After receiving the field space 3D data taken from the field shooting mobile robot module and converting it into a 3D interior modeling with a 360-degree panoramic view, 3D interior modeling with a 360-degree panoramic view given an object, A metaverse virtual interior space creation control module 200 that controls to generate a metaverse virtual interior space in which the metaverse is driven in an MR (Mixed Reality) atmosphere;
It is worn on the head of the metaverse experiencer, linked with the metaverse virtual interior space creation control module, and enters the metaverse virtual interior space based on the online web, providing a visual, auditory, and sensory virtual experience along with the MR (Mixed Reality) atmosphere. A lively, live-type metaverse virtual interior space generating device, characterized in that composed of an MR module 300 for driving a metaverse.
The method of claim 2, wherein the field shooting mobile robot module 100
A mobile robot body 110 composed of a body equipped with a moving means and protecting and supporting each device from external pressure;
A 360-degree rotating camera unit 120 that is located on one side of the upper end of the mobile robot body and captures a 360-degree image of the field space while rotating 360 degrees or captures a 360-degree live-action image of the field space while rotating 360 degrees,
A wireless communication unit 130 located on one side of the 360-degree rotating camera unit and connected to a metaverse virtual interior space generation control module located at a short or long distance through a wireless communication network to perform two-way data communication;
A battery unit 140 for supplying power to each device;
While controlling the overall operation of each device, after converting 360-degree video data and 360-degree real-life images taken by the 360-degree rotating camera unit into field space 3D data through high-precision laser scan control, metaverse virtual interior space creation control module A lively, live-type metaverse virtual interior space generating device, characterized in that composed of a mobile robot control unit 150 that controls to transmit in real time to the side.
The method of claim 2, wherein the metaverse virtual interior space creation control module 200
Receives the field space 3D data captured from the field shooting mobile robot module moving to the field space, transmits it to the sketchup program engine, moves to the field space toward the field shooting mobile robot module, or transmits a control signal to shoot an image. a data transmission/reception unit 210;
A sketch-up program engine unit 220 that generates 3D interior modeling with a 360-degree panoramic view by sketch-up with the field space 3D data received from the data transmission and reception unit;
Objects are assigned to the 3D interior modeling with a 360-degree panoramic view created through the SketchUp program engine, and events are set so that the metaverse formed by the 3D interior modeling with a 360-degree panoramic view is driven. A metaverse platform control unit 230 for controlling the platform;
After placing the 3D interior modeling with a 360-degree panoramic view in the field space to be implemented as a metaverse, the physical environment and the virtual digital environment are overlapped to create a metaverse virtual interior space with an MR (Mixed Reality) atmosphere. A lively, live-type metaverse virtual interior space generating device, characterized in that composed of an MR-type metaverse virtual interior space control unit 240 for controlling.
The method of claim 4, wherein the sketchup program engine unit 220
A lively and live metaverse virtual interior space generator characterized in that it is produced by adding a 360-degree panoramic view to 3D interior modeling through the second, 3D interior modeling through the Enscape render program engine.
The method of claim 4, wherein the sketchup program engine unit 220
A lively and live metaverse virtual interior space generating device characterized by generating a 3D interior modeling with a 360-degree panoramic view of the field space to be implemented as a metaverse through a 1:N collaborative work mode.
The method of claim 4, wherein the metaverse platform control unit 230
It is a class that inherits the JFrame Class of the open graphic library (OpenGL) and is mainly used to control the full screen of the metaverse or the container of UI (User Interface) components (components such as buttons). A metaJFrame unit 231 serving as a place to contain components);
A class that manages a metaverse thread that represents a unit of a program that can be processed simultaneously with the frame rate, and a metaanimator unit 232 that manages the metaverse frame rate and various threads,
A metaclip unit 233 that serves as a top-level abstract class for defining objects on the metaverse;
A metavisitor unit 234 that serves as an interface for controlling or moving objects on the metaverse;
A MetaGRF unit 235 that performs its own storage role of managing data to store field space 3D data;
After defining the code of the current metaverse event, a meta event listener (MetaEventListener) unit 236 that controls to implement the event on the metaverse;
A device for creating a lively and live metaverse virtual interior space, characterized in that it consists of a network metaconnection unit 237 that performs the function of a chat room method while supporting a network metaverse by connecting to another metaverse through a network.
The method of claim 7, wherein the metavisitor (MetaVisitor) unit 234
When a 360-degree panoramic view is added to the 3D interior modeling produced by the SketchUp program engine department and produced, the direction of movement of the latitude and longitude values and the direction of movement of the latitude and longitude values in the 360-degree panoramic view and the produced 3D interior modeling A lively, live-type metaverse virtual interior space generator, characterized in that for specifying the path of.
The method of claim 2, wherein the MR module 300 for driving the metabus
A base station unit 310 that tracks and senses the movement of the metaverse experiencer and transfers the sensed tracking and sensing signal to an MR-type HMD unit (Head Mounted Display);
A link box unit 320 interconnecting the MR type HMD unit and the metaverse MR graphic generation control module;
An MR-type HMD unit 330 that is worn on the head to enter the metaverse virtual interior space and visually, aurally, and sensorically experience the MR (mixed reality) atmosphere;
A lively, live-type metaverse virtual, characterized in that it consists of a controller unit 340 that enables and controls interactions on the metaverse through manipulation of touchpad, trigger, and grip buttons. Interior space generator.
After taking a 360-degree field space image while moving the field space in the X and Y axes through the field shooting mobile robot module, real-time transmission of the filmed field space 3D data to the metaverse virtual interior space creation control module (S100 )and,
Receiving the 3D data of the field space taken from the field shooting mobile robot module through the sketchup program engine of the metabus virtual interior space creation control module and converting it into 3D interior modeling with a 360 degree panoramic view (S200); ,
In the metaverse platform control unit of the metaverse virtual interior space creation control module, a 360-degree panoramic view ( Controlling the platform so that the metaverse formed by 3D interior modeling with View is driven (S300);
After placing 3D interior modeling with a 360-degree panoramic view through the MR-type metaverse virtual interior space control unit of the metaverse virtual interior space creation control module in the field space to be implemented as a metaverse, the physical environment and the virtual digital environment Controlling to generate a metaverse virtual interior space having an MR (Mixed Reality) atmosphere by overlapping (S400);
Through the MR module for driving the metaverse, while interlocking with the metaverse virtual interior space creation control module, entering the metaverse virtual interior space and experiencing the visual, auditory, and sensory virtual experience with the MR (Mixed Reality) atmosphere (S500) A lively, live-type metaverse virtual interior space creation method, characterized in that consisting of.
11. The method of claim 10, wherein the step (S300)
A class inherited from the JFrame Class of the open graphic library (OpenGL) by driving the MetaJFrame unit 231, mainly controlling the full screen of the metaverse, or UI (User Interface) A step of serving as a container (a place to contain components) of components (components such as buttons) (S310);
A class that manages a metaverse thread that represents a unit of a program that can be processed simultaneously with the frame rate when the meta animator unit 232 is driven, and the metaverse frame rate and various threads Managing step (S320);
A step in which the MetaClip unit 233 is driven and serves as a top-level abstract class for defining objects on the metaverse (S330);
A step in which the metavisitor unit 234 is driven and serves as an interface for controlling or moving objects on the metaverse (S340);
A step in which the MetaGRF unit 235 is driven and performs its own storage role of managing data to store field space 3D data (S350);
The meta event listener (MetaEventListener) unit 236 is driven, defining the code of the metaverse event that is actually implemented, and then controlling the event to be implemented on the metaverse (S360);
A lively and live metaverse virtual interior space characterized in that it consists of a step (S370) of performing a function of a chat room method while supporting the network metaverse by connecting the network metaverse to the network metaverse by driving the network metaconnection unit 237 creation method.

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