KR102521514B1 - Touchable dynamic NFT operating system - Google Patents

Abstract

According to the present invention, a touchable dynamic NFT operation system comprises: a database storing 3D content expressed in a three-dimensional shape and objects constituting a virtual space in which the 3D content is arranged; a dynamic NFT generating module that provides dynamic NFT content, which converts the 3D content into a virtual asset with a non-fungible token (NFT), to both a user terminal and the virtual space; and a dynamic NFT expression module that generates motion information according to a manipulation signal of the user terminal and moves the dynamic NFT content according to the motion information to provide the same to the user terminal.

Description

Touchable dynamic NFT operating system {Touchable dynamic NFT operating system}

The present invention relates to a touch-enabled dynamic NFT operating system. More specifically, the 3D content provided in a virtual space is virtualized into an NFT, and at the same time, the movement and movement of the 3D content is possible, so that the content is more realistic. It is about an NFT operating system that can provide.

A copyrighted work is a 'created work that expresses human thoughts or emotions', and can be expressed in various ways, such as literary works (poems, novels, screenplays), lectures, compositions, plays, movies, dances, paintings, sculptures, architecture, photography, and computer programs. is implemented

Regarding these copyrighted works, as the production, distribution, and use environments of major works such as publication, music, and broadcasting are converted to digital, control over risks brought to copyright holders in the digital Internet environment, such as disputes over P2P and streaming music services, has become inevitable. .

In the case of digital assets, there is a problem in verifying/certifying their originality and ownership because perfectly identical copies are possible due to their characteristics. There is a problem that is difficult to control.

Copyright protection of the original and copy of these digital content works has emerged as the biggest issue, and various methods have been attempted to ensure the uniqueness of the digital content work.

As an example of a prior patent document, there is “a contract terminal and method using a digital content original verification key (Registration No. 10-2178583)”.

The prior art includes an input module for receiving input of contract information of a target to be contracted; A location information collection module that collects location information in real time when a target contracts; a contract generation module for generating a contract by using the contract information received by the input module and location information collected in real time from the location information collection module; The contract details input by the input module and the location information collected in real time from the location information collection module are provided to the contents initializer and the international authentication settlement server, and the original digital content is provided from the content initializer or the international authentication settlement server. a digital content original verification key interface module for receiving a verification key; A digital content original contract generation module for generating a digital contents original contract by combining the digital contents original verification key received from the digital original verification key interface module with the contract generated in the contract generation module; A block chain generation module that encrypts the contract created in the digital content original contract generation module to create a block chain; A block chain distributed storage control module is configured to transmit the block chain generated in the block chain generation module to other terminals in a P2P manner so that the block chain is distributed and stored on the network.

However, such prior art does not stop at converting digital content into virtual assets, and fails to provide a configuration that allows users to enjoy virtual assetized content more realistically.

Therefore, in order to solve the above-described problems, the need to implement realistic content in which virtualized digital content responds to a user's motion is emerging.

Korean Registered Patent No. 10-2178583

The main object of the present invention is to provide immersive content with enhanced realism by reacting digital content converted into virtual assets to user's motion information.

Another object of the present invention is to enable detailed and precise manipulation of virtualized digital content.

Another object of the present invention is to enable motion and perspective control of virtualized digital content.

In order to achieve the above object, the touch-enabled dynamic NFT operating system according to the present invention includes a database storing 3D content expressed in a three-dimensional shape and an object constituting a virtual space in which the 3D content is disposed; A dynamic NFT creation module that provides a user terminal with dynamic NFT content obtained by converting the 3D content into a non-fungible token (NFT) as a virtual asset; and a dynamic NFT expression module for generating motion information according to an operation signal of the user terminal and moving the dynamic NFT content according to the motion information to provide the dynamic NFT content to the user terminal.

Furthermore, the system includes: an indicating stick having a sharp end in a state having a certain length and having a gyroscope; and an angle determination module for grasping an angle between the ground and the end through the gyroscope; Including, the dynamic content creation module is characterized in that it comprises a detailed control unit for differentially controlling the movement of the dynamic NFT content according to the height of the angle.

In addition, the indicating stick is provided at the end, and includes a pressure sensor for measuring the pressure applied to the end, and the dynamic NFT expression module provides information to the user based on the pressure measured through the pressure sensor. It is characterized in that it includes a user pattern analysis unit that identifies a push pattern of and a zooming performer that zooms the dynamic NFT content displayed on the virtual space according to the push pattern.

The touchable dynamic NFT operating system according to the present invention,

1) By converting 3D contents that can be output in virtual space such as virtual reality, augmented reality, and hologram in a three-dimensional shape into virtual assets, and making them moveable according to the user's motion information, you can enjoy 3D virtual assets full of reality in virtual space. let it be,

2) By enabling more detailed control through the indicating stick, the sense of reality can be further strengthened, and detailed precision manipulation through the indicating stick can be made possible compared to mouse manipulation.

3) The dynamic NFT content provided to the user terminal along with the virtual space can be given an effect of moving away and approaching by the pattern of pressure applied to the indicating stick, so that immersive content can be provided more realistically.

1 is a conceptual diagram of a touch-enabled dynamic NFT operating system of the present invention.
Figure 2 is a block diagram showing the detailed configuration of the main server of the present invention.
Figure 3 is a conceptual diagram showing an example of dynamic NFT content output to the virtual space of the present invention.
4 is a conceptual diagram of an indicating stick;
5 is a conceptual diagram showing an example of highlighting processing of dynamic NFT content.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. The accompanying drawings are not drawn to scale, and like reference numbers in each drawing indicate like elements.

1 is a conceptual diagram of a touch-enabled dynamic NFT operating system of the present invention.

Referring to FIG. 1, the touch-enabled dynamic NFT operating system of the present invention includes a user terminal 20, an indicating stick 30, and a main server 10.

The user terminal 20 is a terminal possessed by a user capable of purchasing and selling the dynamic NFT content 40 of the present invention, and such a user terminal 20 has a display to display the virtual space 50 and dynamic NFT content ( 40), and can be further connected to the main server 10 and the indicating stick 30 through a communication function.

The user terminal 20 may preferably be any one of a smart phone, PC, laptop, and tablet PC, and the user terminal 20 is a manipulation signal generated by manipulation of a touch screen display or input of a mouse or keyboard. and it is possible to generate motion information through this.

Alternatively, the user terminal 20 outputs the virtual space 50 and the dynamic NFT content 40 through the display, including the display and the motion sensor device based on the lip motion, and at the same time recognizes the gesture taken by the user and motion based on the gesture information can also be generated.

This indicating stick 30 has a sharp end 31 with a certain length, to control the movement of the dynamic NFT content 40 provided on the virtual space 50 or to give a highlighting effect, etc. stuff that is used

This indicating stick 30 preferably includes a gyroscope 32 to measure an angle with the ground, and based on this, fine movement of the dynamic NFT content 40 is adjusted or dynamic NFT content 40 around Functions such as highlighting an area can be provided.

In other words, the indicating stick 30 may be a modified joystick or wireless mouse in a known game device. However, the joystick has a control bar attached to the joystick pad to determine only the direction, and the wireless mouse can only determine the click of a button, whereas the indicating stick 30 is shaped like a straw or bar and is portable without a separate joystick pad Not only is it convenient to move, but as will be described later, it provides the characteristic of additionally collecting and generating unique information in addition to direction and click.

A gyroscope 32 is provided around the sharp end 31 provided in the indicating stick 30 to determine the contact angle with the ground, and furthermore, a pressure sensor 33 is provided at the end 31 It is also possible to differentially highlight the surrounding area of the dynamic NFT content 40 in the dynamic NFT content 40 output on the virtual space 50 according to the pressure applied to the end 31 by the user. .

The main server 10 has a function of storing 3D contents and objects constituting the virtual space 50 in which the 3D contents are placed, and a function of generating dynamic NFT contents 40 by converting 3D contents into NFTs as virtual assets, in addition to providing dynamic It performs a function of providing the NFT content 40 to the user terminal 20 and furthermore a function of moving the dynamic NFT content 40 on the virtual space 50 according to the motion information generated by the user terminal 20 .

Furthermore, detailed movement control of the dynamic NFT contents 40 linked with the indicating stick 30, and further highlight processing of the area near the dynamic NFT contents 40 in the virtual space 50 are also performed by the main server 10. can

That is, it can be said that the subject of the touch-enabled dynamic NFT operating system of the present invention becomes the main server 10, in other words, the main server 10 can also be said to be the system. In other words, the subject implementing the system may be referred to as the main server 10, and unless otherwise stated, in the present invention, the system and the main server 10 are regarded as the same.

Such a main server 10 is a series of subjects for implementing the system of the present invention, and includes a server PC and a network communication network. In addition, the main server 10 has a central processing unit (CPU) and a hardware-based memory and storage means such as a hard disk, and a program that can be executed in the central processing unit, that is, software is installed and can run this software. A series of detailed configurations of the software will be described later as units such as 'modules', 'parts', and 'parts'.

Configurations such as 'modules' or 'units' or 'interfaces' or 'parts' are software or hardware such as FPGAs or ASICs executed via CPU and memory in a state installed and stored in the storage means of the main server 10 means the work composition of

At this time, the configuration of 'module' or 'unit' or 'interface' is not limited to hardware, and may be configured to be in an addressable storage medium or configured to reproduce one or more processors.

As an example, 'module' or 'part' or 'interface' refers to components such as software components, object-oriented software components, class components, and task components, processes, functions, and attributes. fields, procedures, subroutines, segments of program code, drivers, firmware, microcode, circuitry, data, databases, data structures, tables, arrays and variables.

Functions provided by these 'modules' or 'units' or 'interfaces' may be combined into a smaller number of components and 'units' or 'modules', or may be combined into additional components and 'units' or 'modules'. can be further separated.

In addition, the main server 10 means all types of hardware devices including at least one processor, and may be understood as encompassing software configurations operating in the corresponding hardware devices according to embodiments.

For example, a computing device as an example of a server may be understood as including all of smart phones, tablet PCs, desktops, laptops, and user clients and applications running on each device, but is not limited thereto.

Hereinafter, based on this configuration, the touchable dynamic NFT operating system of the present invention will be described with drawings.

Figure 2 is a block diagram showing the detailed configuration of the main server of the present invention, Figure 3 is a conceptual diagram showing an example of dynamic NFT content output to the virtual space of the present invention.

Referring to FIGS. 2 and 3, the touchable dynamic NFT operating system of the present invention is characterized by including a database 100, a dynamic NFT generation module 200, and a dynamic NFT expression module 300.

The database 100 performs a function of storing 3D content expressed in a 3D shape and objects constituting the virtual space 50 in which the 3D content is arranged.

As long as the 3D content is expressed in a 3D shape, there are no restrictions on the type, and 3D content can be any 3D avatar or 3D object shape. An example of such 3D content may be a 3D image, or not only an image expressed in a 3D shape but also a specific effect added to the corresponding image or added with sound may be stored as 3D content. In this case, most preferably, the 3D content of the present invention may be a 3D avatar including at least one of a plastic model and a figure.

Here, an object is also referred to as an object, and such an object may be referred to as a component constituting the virtual space 50 . Here, the virtual space 50 may be any one of augmented reality, virtual reality, and mixed reality, or may be a virtual space implemented on a web page.

Therefore, all components that can compose this virtual space 50 soon become objects, and preferably, the object constituting this virtual space 50 can be a background in which 3D content is placed, and in the case of a specific space, 3D content In addition, all components placed in the space can be objects.

Therefore, the objects constituting the virtual space 50 may be a plurality of backgrounds that can be expressed in the virtual space 50, and furthermore, when the virtual space 50 is implemented as a 3D three-dimensional space, the corresponding virtual space 50 Any wall or structure that implements can be an object.

The dynamic NFT generation module 200 virtualizes the 3D content stored in the database 100 into a Non-Fungible Token (NFT) to generate dynamic NFT content 40, and converts the generated dynamic NFT content 40 into a virtual space ( 50) and performs functions provided to the user terminal 20.

At this time, if the virtual assetization of 3D content is described in more detail, first, a non-fungible token (NFT: Non-Fungible Token) is created for each 3D content, uniqueness is given to the corresponding 3D content, and digital assetization is performed.

If an NFT with uniqueness is issued to the 3D content, the NFT cannot be exchanged with other tokens of the same type.

To issue such an NFT, a peer server that performs a token generation function is required. In the present invention, the main server 10 can perform a role of issuing a token and recording and managing the current state of the token by performing a role of a peer server. there is.

Furthermore, for the issued NFT, a block containing current state information including the owner and a block chain in which a plurality of blocks are connected can be formed and stored in a node. At this time, the node may preferably be the user terminal 20 .

At this time, the current state information included in the block refers to the token identifier (ID), token type (Type), token owner (Owner), operator ( Operator), and at least one of information about an approver.

Furthermore, the token identifier (ID), token type (Type), and owner (Owner) may be essential information that all tokens commonly include, and the operator and approver are designated according to the owner's choice. It may be optional information that can be.

At this time, the block may be based on including current state information and may further include transaction information including transaction details when NFT transactions between user terminals 20 are made, and when such blocks are connected in plurality A blockchain is formed. At this time, since the block size is not limited, a dynamic block size can be supported, and the number of current state information and transaction information stored in one block can be variable according to the block size. Therefore, a plurality of pieces of information form one block, and these blocks are stacked and connected to each other to form a block chain. In addition, the blockchain ledger is stored in the main server 10, and in the case of a copy, it is transmitted to the user terminal 20 of the present invention so that data can be shared and recorded.

Therefore, 3D content that has been virtualized as such is referred to as dynamic NFT content 40, and dynamic NFT content 40, which is 3D content that is unique due to NFT issuance, is a user terminal 20 along with virtual space 50 is provided on

At this time, the dynamic NFT content 40 provided to the user terminal 20 is preferably the dynamic NFT content 40 purchased by the user, and therefore, the owner of the content preferably provides the user terminal 20 receiving the content. It may be the user who has it. Also, as described above, of course, transactions between user terminals 20 are possible.

The dynamic NFT expression module 300 performs a function of generating motion information according to the manipulation signal of the user terminal 20 and moving the dynamic NFT content 40 provided to the user terminal 20 according to the generated motion information. do. That is, as the motion information is generated by the user terminal 20, it means to move the dynamic NFT content 40 output to the display of the user terminal 20.

Here, when generating motion information in more detail, dynamic NFT content 40 based on an operation signal generated according to an operation on a touch screen display included in the user terminal 20 or an input using a mouse or keyboard. It can be said to generate motion information including whether or not the motion of the motion, the direction of the motion, and the degree of motion.

Touch or drag-and-drop manipulation through the touch screen display, mouse movement or click, keyboard direction key input, etc. can all be manipulation signals. The direction and intensity (degree) of the movement of the dynamic NFT content 40 may vary as the direction, direction key manipulation number or direction, etc. all become manipulation signals.

Therefore, when motion information is generated in this way, the dynamic NFT content 40 arranged in the virtual space 50 is moved according to the generated motion information. It may include moving to another location, or moving a specific part of the dynamic NFT content 40 is also possible.

To explain this in more detail, in the above description, the dynamic NFT content 40 may be a 3D avatar including either a figure or a plastic model. It may be that only certain parts can be moved.

Therefore, in order to implement the movement of such dynamic NFT contents 40, the dynamic NFT expression module 300 may include an avatar moving unit 310 and a joint control unit 320, and the avatar moving unit 310 provides motion information. Performs a function of moving the dynamic NFT content (virtualized 3D avatar) 40 in conjunction with, and the joint controller 320 interlocks with motion information to move the dynamic NFT content (virtualized 3D avatar) 40 of the joint performs the function of moving the

At this time, the entire movement of the dynamic NFT content 40 through the avatar moving unit 310 can be referred to as adjusting the location where the dynamic NFT content 40 is placed on the virtual space 50, which is interlocked with motion information. Preferably, it can be performed by inputting a direction key.

The function of moving the joints of the dynamic NFT content (virtualized 3D avatar) 40 through the joint control unit 320 moves a specific joint of the 3D avatar constituting the dynamic NFT content 40 as if the dynamic NFT content 40 By moving and rotating only the arms, legs, and head of the 3D avatar, it is possible to control as if moving the joints of the corresponding part by dragging and dropping a specific part of the dynamic NFT content 40 through the mouse.

The dynamic NFT operating system of the present invention as described above converts 3D content that can be output on the virtual space 50 such as virtual reality, augmented reality, and hologram into a three-dimensional shape as a virtual asset, and makes it movable according to the user's motion information. There is an advantage in that 3D virtual assets full of a sense of reality can be enjoyed in the virtual space 50.

4 is a conceptual diagram of an indicating stick.

Referring to FIG. 4 , the system of the present invention may include the indicating stick 30 as described above. This indicating stick 30 has a sharp end 31 in a state having a certain length. ) and characterized in that it includes a gyroscope (32).

In other words, the indicating stick 30 may be a modified joystick or wireless mouse in a known game device. However, the joystick has a control bar attached to the joystick pad to determine only the direction, and the wireless mouse can only determine the click of a button, whereas the indicating stick 30 is shaped like a straw or bar and is portable without a separate joystick pad Not only is it convenient to move, but as will be described later, it provides the characteristic of additionally collecting and generating unique information in addition to direction and click.

The indicating stick 30 is provided with a separate power supply and charging function so that power can be supplied, and a communication unit is provided to transmit and receive information to and from the user terminal 20 and the main server 10.

In addition, the indicating stick 30 has a characteristic of including a gyroscope 32 on one side, most preferably at the end 31 or around the end 31, so that the system of the present invention can determine the angle module ( 400), the angle between the end 31 and the ground may be grasped with respect to the ground through the gyroscope 32 included in the indicating stick 30.

Specifically, when the end 31 included in the indicating stick 30 contacts the ground, the angle determination module 400 via the gyroscope 32 determines the distance between the ground and the end 31. It can figure out the angle. Since this is the same as the known angle detection configuration through the gyroscope 32, a detailed description thereof will be omitted.

Furthermore, when the indicating stick 30 is in contact with the ground and the angle between the ground and the end 31 of the indicating stick 30 is identified, the dynamic content generation module determines through the detailed control unit 330 The movement of the dynamic NFT content 40 can be differentially controlled according to the height of the angle.

At this time, the differential control of the movement of the dynamic NFT content 40 may be performed in conjunction with the joint control unit 320 described above. If the dynamic NFT content 40 is a virtualized 3D avatar, the corresponding dynamic NFT content 40 The indicating stick 30 can be used when you want to move a specific joint.

As an example, if the dynamic NFT content 40 is a virtual 3D plastic model, and if you want to tilt the head of the 3D plastic model 30 ° to the left, click the head of the corresponding dynamic NFT content 40 and display the indicator Similarly, when the tinting stick 30 is tilted to the left by 30°, the movement can be controlled in detail as if the neck joint moves at the same angle as the angle of the indicating stick 30 by moving the neck joint by 30°.

Through this, more detailed control through the indicating stick 30 can be made possible, thereby strengthening the sense of reality, and it is possible to enable detailed and precise manipulation through the indicating stick 30 compared to mouse manipulation. .

Further from here, a pressure sensor 33 is further provided at the end 31 of the indicating stick 30 of the present invention to further measure the pressure applied to the end 31. Most preferably, such a pressure sensor 33 may be provided at a sharp distal end of the end 31 to measure the pressure applied to the end 31 .

At this time, when the user applies pressure to the end 31 on the ground while holding the indicating stick 30, the pressure sensor 33 provided at the end 31 measures the pressure applied to the end 31 At this time, it is possible to measure the strength of the pressure as well as to identify the pattern in which the pressure is generated.

In order to control the dynamic NFT content 40 based on such a pressure generation pattern, the dynamic NFT expression module 300 of the present invention may include a user pattern analysis unit 340 and a zooming execution unit 350.

The user pattern analyzer 340 performs a function of identifying a user's push pattern based on the pressure measured by the pressure sensor 33 . At this time, the user's push pattern refers to a pattern in which the user applies pressure to the end portion 31, how many times the user applies pressure to the end portion 31 for 1 second or 1 minute, or how much pressure is applied once. It is to figure out whether it was applied for a long time and how strong the pressure was applied.

Therefore, the push pattern refers to the number of times pressure is applied for a standard time (a value that can be preset by the system, such as 1 minute, and there are no restrictions on the setting method or setting subject), the time the pressure is maintained during one press, Includes pressure intensity, average pressure, etc.

The zooming performer 350 performs a function of zooming the dynamic NFT content 40 displayed on the virtual space 50 according to the push pattern. For example, when a push pattern in which short and weak pressure is repeatedly applied appears, the dynamic NFT content 40 is zoomed out, and when a push pattern indicating a long and strong pressure appears, the dynamic NFT content 40 is zoomed in. . In addition, zoom-in and zoom-out can be performed according to various push patterns, and there are no restrictions on these patterns.

At this time, the zoom-in process increases the size of the dynamic NFT content 40 displayed on the virtual space 50 to indicate that the dynamic NFT content 40 is approaching on the virtual space 50, and the zoom-out content is the virtual space ( 50) by reducing the size of the dynamic NFT content 40 displayed on the virtual space 50, it can be said that it appears as if the dynamic NFT content 40 is moving away.

Through this, the dynamic NFT content 40 provided with the virtual space 50 to the user terminal 20 can be given an effect of moving away and closer by the pattern of pressure applied to the indicating stick 30. It goes without saying that immersive content can be provided more realistically.

Furthermore, in order to specifically identify the user's push pattern, the user pattern analyzer 340 may determine repetitive pattern information and specific pattern information.

The repetition pattern information refers to the number of pressures generated within a preset reference range during a reference time. For example, when pressure within the reference range occurs 10 times for 1 minute, repetition pattern information of 10 times/1 minute may be identified. Here, the reference time is the reference time for generating the push pattern (period of the pattern), and the reference range means a standard pressure range that can be set by the system. In this case, the reference range is a preset value, and the value range is not limited.

Identifying the specific pattern information is to identify the number of pressures generated exceeding the standard range as the specific pattern information. If the pressure exceeding the standard range occurs twice for one minute, the specific pattern information of two times/minute may be identified.

Therefore, as the repetitive pattern information and the unique pattern information are generated in this way, the push pattern for the user's end 31 can be grasped, and the dynamic NFT content 40 can be zoomed according to the push pattern. For example, when repeating pattern information 5 times and specific pattern information 1 time are calculated, the dynamic NFT content 40 comes close to the user terminal 20 5 times and then zooms in and zooms out once again as if repeating will be.

Through this, by controlling the zoom of the dynamic NFT content 40, it is possible to provide an effect of approaching and moving away from the user terminal 20 in a pattern, so that the sensory effect can be maximized.

5 is a conceptual diagram illustrating an example of highlighting processing of dynamic NFT content.

Referring further with reference to FIG. 5, as described above, when the pressure sensor 33 is provided, the pressure applied to the end 31 can be measured. Through the module 500, the surrounding area of the dynamic NFT content 40 on the virtual space 50 can be highlighted.

For example, when the measured pressure is high, the area around the dynamic NFT content 40 may be highlighted more brightly, and for example, when the measured pressure is low, the area around the dynamic NFT content 40 may be highlighted less brightly. It can be done. At this time, the area around the highlighted dynamic NFT content 40 is referred to as a highlight area, and as pressure is applied to the end 31, the highlight area may be created.

At this time, the differential highlight processing of the highlight area, that is, the brightness adjustment can be performed according to the measured pressure level, so that the pressure applied to the indicating stick 30 is applied to the dynamic NFT content 40 on the virtual space 50 It becomes possible to control the losing effect.

Through this, it is possible to make the dynamic NFT contents 40, which are immersive contents displayed on the virtual space 50, stand out more, and furthermore, according to the pressure applied to the indicating stick 30, the dynamic NFT contents 40 on the virtual space 50 A reaction to a user's manipulation can be strengthened by allowing the area around the NFT content 40 to be highlighted.

As a detailed configuration of such a highlighting process, the system of the present invention includes the movement detection module 600, based on virtual spatial coordinates, from the start time when the pressure is detected from the end 31 to the end ( 31), it is possible to grasp the amount of change in the position coordinate value.

Specifically, the movement detection module 600 determines the starting time when the pressure is detected based on virtual spatial coordinates (x-y-z spatial coordinates) while the user is holding the indicating stick 30, that is, by the pressure sensor 33. It performs a function of determining the amount of change in the position coordinate value of the end portion 31 from the start time when the pressure is detected to the time of calculation (ie, during the observation time).

In the above description, it was said that the indicating stick 30 can grasp the angle between the ground and the end 31 through the gyroscope 32, through which the positional coordinates of the end 31 based on virtual space coordinates It is possible to set, and the amount of change in the position coordinate value of the end portion 31 can be grasped during the observation time. At this time, the change amount of the position coordinate value may mean the change amount of the x component, y component, and z component of the position coordinates of the end portion 31.

이라고 파악할 수 있다.For example, when the position coordinates of the end 31 are (5,2,7) at the time when the pressure starts to be detected and the position coordinates of the end 31 are (6,3,4) at the calculation time, the movement The determination module 600 is interlocked with the gyroscope 32 so that the amount of change in the position coordinate value of the end 31 during the observation time is

can be figured out.

Accordingly, the highlight processing module 500 sequentially adjusts the brightness of the highlighting area 60 according to the lapse of time from the point of time when the change in the location coordinate value of the end portion 31 exceeds the reference range of spatial coordinates. It can provide a function to reduce to .

이라고 기 설정되었다고 할 때, 단부(31)의 위치 좌표 값의 변화량 기준 범위를 초과하는 경우(즉,

중 어느 하나가 기준 범위를 초과하는 경우) 하이라이트 처리 모듈(500)은 초과된 시점으로부터 시간의 흐름에 따라 하이라이팅 영역(60)의 밝기를 순차적으로 감소시킬 수 있다.For example, if the criteria range is

When it is said that it is preset, when the change amount of the position coordinate value of the end 31 exceeds the reference range (ie,

If any one of the above values exceeds the reference range), the highlight processing module 500 may sequentially decrease the brightness of the highlighting area 60 as time passes from the point of time exceeding the reference range.

At this time, the brightness of the highlighting area 60 may be calculated through Equation 1 below.

Equation 1.

는 하이라이팅 영역의 밝기,

는 기존 밝기,

는 산출 시점에서의 상기 단부의 위치 좌표에 해당하는

축 성분,

는 산출 시점에서의 상기 단부의 위치 좌표에 해당하는

축 성분,

는 산출 시점에서의 상기 단부의 위치에 해당하는

축 성분,

는 관찰 시간동안 x축의 성분의 평균 값,

는 관찰 시간동안 y축 성분의 평균 값,

는 상기 관찰 시간동안 z축 성분의 평균 값,

는 시간(s))(here,

is the brightness of the highlighting area,

is the original brightness,

Corresponds to the positional coordinates of the end at the time of calculation

axis component,

Corresponds to the positional coordinates of the end at the time of calculation

axis component,

corresponds to the position of the end at the time of calculation

axis component,

is the average value of the components of the x-axis during the observation time,

is the average value of the y-axis component during the observation time,

Is the average value of the z-axis component during the observation time,

is the time (s)

Equation 1 is an expression for calculating a new brightness from an existing brightness based on the value of each component of the positional coordinates of the end 31, the end during the observation time (the time from the start point at which the pressure is detected from the end point to the calculation time point). Based on the position coordinate change of (31), the brightness of the highlighting area 60 is sequentially reduced during the time from the time when the position coordinate change of the end 31 exceeds the reference range to the time when the pressure detection is stopped. provides a function to

Here, the existing brightness means a brightness value before change, and the brightness of the initial highlight area 60 may be the reference brightness.

는 단부(31)의 위치 좌표 변화량이 기준 범위를 초과한 시점으로부터 압력 검출이 종료되기까지의 시간을 의미한다.Here, the change in positional coordinates of the end 31 means the change in each component of the positional coordinates of the end 31 from the start time when the pressure is detected from the end 31 to the calculation time, as described above,

Means the time from when the amount of change in positional coordinates of the end 31 exceeds the reference range to the end of pressure detection.

At this time, the brightness of the highlighting area 60 can be more accurately calculated using a hyperbolic tangent function (tanh), rather than simply calculating the laser intensity using only the position coordinate change of the end portion 31 .

Furthermore, the brightness calculated at this time is a relative numerical value that can be calculated between 0 and 100. In setting the highlight area in the virtual space 50, the maximum brightness that can be expressed the brightest can be set to 100, and 100 The closer it is to , the brighter it is, and the closer it is to 0, the darker it can be adjusted.

As described so far, the configuration and operation of the touchable dynamic NFT operating system according to the present invention are expressed in the above description and drawings, but this is only an example, and the spirit of the present invention is not limited to the above description and drawings, Of course, various changes and modifications are possible within a range that does not deviate from the technical spirit of the present invention.

10: main server 20: user terminal
30: indicating stick 31: end
32: gyroscope 33: pressure sensor
40: dynamic NFT content 50: virtual space
60: highlighting area 100: database
200: dynamic NFT generation module 300: dynamic NFT expression module
310: avatar moving unit 320: joint control unit
330: detailed control unit 340: user pattern analysis unit
350: zooming unit 400: angle detection module
500: highlight processing module 600: movement detection module

Claims (9)

As a touch-enabled dynamic NFT operating system,
A database storing 3D content expressed in a 3D shape and objects constituting a virtual space in which the 3D content is arranged;
A dynamic NFT creation module that provides a user terminal with dynamic NFT content obtained by converting the 3D content into a non-fungible token (NFT) as a virtual asset;
an indicating stick having a sharp end in a state having a certain length and having a gyroscope and a pressure sensor provided at the end to measure the pressure applied to the end;
an angle detection module configured to determine an angle between a ground contacting the indicating stick and an end thereof through the gyroscope;
Generating motion information according to the manipulation signal of the user terminal, moving the dynamic NFT contents according to the motion information and providing the motion information to the user terminal, and a detailed control unit for differentially controlling the movement of the dynamic NFT contents according to the height of the angle. A dynamic NFT expression module that includes;
a movement detection module for detecting a change amount of the positional coordinates of the end from a start time when the pressure is detected from the pressure sensor to a calculation time based on virtual spatial coordinates;
According to the height of the measured pressure, a highlight area obtained by differentially highlighting the surrounding area of the dynamic NFT content displayed on the virtual space is generated, and the amount of change in the location coordinate exceeds the reference range of the spatial coordinate. Characterized in that it comprises a; highlight processing module for sequentially reducing the brightness of the highlight area over time from the point of view. According to claim 1,
The 3D content,
Characterized in that it is a 3D avatar including at least one of a plastic model and a figure, a dynamic NFT operating system. According to claim 2,
The dynamic NFT expression module,
An avatar moving unit that moves the dynamic NFT content in conjunction with the motion information;
Characterized in that it comprises a joint control unit for moving the joint of the dynamic NFT content in conjunction with the motion information, dynamic NFT operating system. According to claim 1,
The dynamic NFT expression module,
A user pattern analyzer for identifying the user's push pattern based on the pressure measured by the pressure sensor;
A dynamic NFT operating system comprising a zooming performer for zooming the dynamic NFT content displayed on the virtual space according to the push pattern. According to claim 4,
The user pattern analysis unit,
The number of pressures generated within a preset reference range during a reference time is determined as repetition pattern information, and the number of pressures generated exceeding the reference range is identified as unique pattern information, and the push pattern is determined based on the repetition pattern information and the specific pattern information. Characterized in that for grasping, dynamic NFT operating system. According to claim 1,
The brightness of the highlight area is
Characterized in that calculated through the following Equation 1, a dynamic NFT operating system.
Equation 1.

(here,

is the brightness of the highlighting area,

is the original brightness,

Corresponds to the positional coordinates of the end at the time of calculation

axis component,

Corresponds to the positional coordinates of the end at the time of calculation

axis component,

corresponds to the position of the end at the time of calculation

axis component,

is the average value of the components of the x-axis during the observation time,

is the average value of the y-axis component during the observation time,

Is the average value of the z-axis component during the observation time,

is the time (s) delete delete delete

Images