CN119127022A - A three-dimensional presentation type intelligent operating system and its interactive method - Google Patents
A three-dimensional presentation type intelligent operating system and its interactive method Download PDFInfo
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- G06F3/01—Input arrangements or combined input and output arrangements for interaction between user and computer
- G06F3/048—Interaction techniques based on graphical user interfaces [GUI]
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Abstract
The invention discloses a three-dimensional presentation intelligent operating system and an interaction method thereof, which are used for constructing and storing three-dimensional scene model geometric information data and corresponding attribute information data, generating node bins at geometric points of the three-dimensional scene model, synchronously filling corresponding data sources and corresponding target files in the node bins for storage, intelligently acquiring external operation instructions, calling the attribute information data in the three-dimensional scene model, then calling the data sources and the corresponding target files under the current attribute information data, and outputting logical processing results and display interfaces in real time.
Description
Technical Field
The invention relates to the technical field of computer operating systems, in particular to a three-dimensional stereoscopic presentation type intelligent operating system and an interactive method thereof.
Background
With advances in technology, the evolution of computer operating systems has transitioned from traditional two-dimensional Graphical User Interfaces (GUIs) to more intuitive and immersive three-dimensional user interfaces (3 DUIs). The purpose of this transition is to promote the interactive experience and operational efficiency of the user. In a three-dimensional interface, a user may interact with a computer in a more natural manner, such as through voice, rotation, zooming, and stereoscopic navigation, to navigate through objects in an operating system.
Three-dimensional operating systems currently on the market often rely on Virtual Reality (VR) technology, which requires specialized hardware device support, such as Head Mounted Displays (HMDs), position tracking sensors, and high performance Graphics Processing Units (GPUs), to a certain extent, more of the prior art focuses on third party presentations, but ignores three-dimensional presentations of internal resources of the computer itself, with low degrees of stereoscopy.
Disclosure of Invention
The present invention has been made in view of the above-mentioned problems occurring in the conventional three-dimensional operating system.
Therefore, the invention solves the technical problems that the existing three-dimensional operating system focuses more on third party display, ignores the three-dimensional presentation of internal resources of the computer and has low three-dimensional degree.
The invention relates to an intelligent three-dimensional operation system and an interactive method thereof, which are characterized in that node bin storage data are created at geometric points of a three-dimensional scene model, and the intelligent response external instructions perform big data analysis in a distributed manner, process and display logic results in real time, and provide stereoscopic vision experience. The system can be customized individually, meets different user demands, improves three-dimensional presentation and three-dimensional degree, and exceeds the limitation of the existing system in the aspect of three-dimensional presentation of internal resources.
The three-dimensional rendering intelligent operation system comprises a 3D model building module, a storage module, an information source module, an information analysis module, an interactive synchronization module, a display module and a display module, wherein the 3D model building module is used for building a three-dimensional display interface and storing geometric information data of each built three-dimensional scene model in a 3D model library, the storage module is embedded in the 3D model building module and stores geometric information data of each built three-dimensional scene model and corresponding attribute information data, the information source module is embedded in the 3D model building module and generates node bins at each geometric point of the three-dimensional scene model, corresponding data sources and corresponding target files are synchronously filled in the node bins to finish node storage of each data source and the target files, the input module is used for acquiring external operation instructions, the information analysis module is connected with the 3D model building module and the storage module information data, the built three-dimensional scene model and the storage module corresponding attribute information data in the storage module are output to the interactive synchronization module, the interactive synchronization module is connected with the input module and the information analysis module information data of each three-dimensional scene model, the input module is used for carrying out interaction with the corresponding data of the three-dimensional scene model and the three-dimensional model, the display module is used for carrying out interaction with the display of the corresponding information of the attribute information of the three-dimensional model, and the display module is used for displaying the current operation instruction.
The three-dimensional presentation type intelligent operation system is used as a preferable scheme, wherein the input module acquires an external operation instruction through intelligent recognition, and the intelligent recognition specifically comprises direct selection recognition, voice recognition and gesture recognition of a mouse and a keyboard.
The three-dimensional rendering intelligent operation system is used as a preferable scheme, wherein the built three-dimensional scene model geometric information data comprises vertexes of a model perimeter, model scenes and model names, the vertexes, the model scenes and the model names are stored in a plurality of binary 3D model files, and the model scenes adopt one of palace scenes, european scenes, family scenes, factory scenes and office scenes.
The three-dimensional rendering intelligent operation system is characterized in that attribute information data in a three-dimensional scene model comprise detailed information of the model, the attribute information data can be expanded in a self-defined mode, the detailed information of the model comprises model scenes, model boundary points, model top vertexes and model node bin information, and the model node bin information comprises the number of node bins, the size of the node bins and the positions of the node bins.
The invention further provides a technical scheme of the three-dimensional rendering intelligent operation system interactive method, wherein the three-dimensional rendering intelligent operation system comprises the following steps of S1, generating three-dimensional scene model geometric information data by the aid of the 3D model building module and storing the three-dimensional scene model geometric information data in a 3D model library, S2, acquiring and storing attribute information data of a model by the aid of the storage module, S3, selecting an applicable model scene by the aid of the information source module, generating node bins at geometric points of the three-dimensional scene model by the aid of application programs, synchronously filling corresponding data sources and corresponding target files in the node bins to complete node storage, S4, intelligently acquiring external operation instructions by the aid of the input module and sending the external operation instructions to the interactive synchronization module, S5, reading the corresponding three-dimensional scene model geometric information data and the corresponding attribute information data by the aid of the information analysis module, converting the corresponding three-dimensional scene model geometric information data into an internal format and outputting the internal format to the interactive synchronization module, S6, calling the attribute information data in a three-dimensional scene by the aid of the information analysis module, calling the corresponding attribute information data in the three-dimensional scene model, and displaying the corresponding attribute information data in the real-time, and displaying the real-time processing results, and displaying the attribute information, and displaying the corresponding data.
The interactive method of the three-dimensional presentation intelligent operating system is characterized in that a digital person is controlled by means of keyboard input or mouse direct selection recognition or voice recognition or gesture recognition, and an operation instruction is executed, wherein the operation instruction comprises forward movement, backward movement, left movement, right movement, ascending, descending, steering and selection.
The interactive method of the three-dimensional presentation intelligent operation system comprises the following steps of controlling a digital person to advance if an advance instruction is received, controlling a visual angle in a three-dimensional scene to advance and a three-dimensional display interface to advance if a retreat instruction is received, controlling the digital person to retreat and enabling the three-dimensional display interface to retreat if a retreat instruction is received, controlling the digital person to move left if a left movement instruction is received, controlling the digital person to move left if a right movement instruction is received, controlling the digital person to move right if a right movement instruction is received, controlling the digital person to ascend and the three-dimensional display interface to ascend if an ascending instruction is received, controlling the digital person to descend and enabling the three-dimensional display interface to descend if a descending instruction is received, controlling the digital person to steer along with the three-dimensional display interface if a steering instruction is received, enabling a visual range of the digital person to identify synchronous steering, controlling the digital person to move right if a selected instruction is received, controlling the interactive synchronization module to control the digital person to move right in a high-brightness mode, and simultaneously obtaining a corresponding object in a three-dimensional source storage bin in a three-dimensional object mode, and simultaneously matching selected object nodes in the three-dimensional object.
As a preferable scheme of the interactive method of the three-dimensional stereoscopic presentation type intelligent operation system, the interactive synchronization module can control 360-degree turning of a digital person.
The invention provides a three-dimensional presentation intelligent operating system, which has the following functional effects:
1. the three-dimensional presenting technology is adopted, so that the visual experience of a user is improved;
2. The intelligent scheduling and optimization of the operating system are realized by utilizing an artificial intelligence technology, and the system performance is improved;
3. introducing a three-dimensional object recognition technology, realizing intelligent recognition and response to user operation, and providing intelligent operation suggestions;
4. the multi-user cooperation is supported, the seamless connection of shared resources and data is realized, and the cooperative work efficiency is improved;
5. the system has strong data analysis capability, provides personalized custom services for users, and meets the requirements of different users.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings that are needed in the description of the embodiments will be briefly described below, it being obvious that the drawings in the following description are only some embodiments of the present invention, and that other drawings may be obtained according to these drawings without inventive effort for a person skilled in the art. Wherein:
FIG. 1 is a block diagram of an overall system of the three-dimensional rendering intelligent operating system provided by the invention.
Fig. 2 is an overall step diagram of an interaction method of a three-dimensional rendering type intelligent operation system provided by the invention.
FIG. 3 is a flow chart of the interaction method of the three-dimensional rendering intelligent operation system provided by the invention.
Detailed Description
So that the manner in which the above recited objects, features and advantages of the present invention can be understood in detail, a more particular description of the invention, briefly summarized above, may be had by reference to the embodiments, some of which are illustrated in the appended drawings. All other embodiments, which can be made by one of ordinary skill in the art based on the embodiments of the present invention without making any inventive effort, shall fall within the scope of the present invention.
Three-dimensional operating systems currently on the market often rely on Virtual Reality (VR) technology, which requires specialized hardware device support, such as Head Mounted Displays (HMDs), position tracking sensors, and high performance Graphics Processing Units (GPUs), to a certain extent, more of the prior art focuses on third party presentations, but ignores three-dimensional presentations of internal resources of the computer itself, with low degrees of stereoscopy.
Accordingly, referring to fig. 1, the present invention provides a three-dimensional rendering intelligent operation system, which includes the following components:
The 3D model construction module 100 is configured to construct a three-dimensional display interface, and store geometric information data of each constructed three-dimensional scene model in a 3D model library;
the storage module 200 is embedded in the 3D model construction module 100 and stores the constructed geometric information data and the corresponding attribute information data of each three-dimensional scene model;
The information source module 300 is embedded in the 3D model construction module 100, generates node bins at each geometric point of the three-dimensional scene model, and synchronously fills corresponding data sources and corresponding target files in each node bin to finish node storage of each data source and target file;
An input module 400 for acquiring an external operation instruction;
The information analysis module 500 is connected with the 3D model construction module 100 and the storage module 200 in an information data manner, and analyzes and outputs the constructed three-dimensional scene model and the corresponding attribute information data in the storage module 200 to the interactive synchronization module 600;
The interactive synchronization module 600 is in information data connection with the input module 400 and the information analysis module 500, responds to the external operation instruction acquired by the input module 400 by a system digital person, and the information analysis module 500 calls the attribute information data in the three-dimensional scene model and then calls a data source and a corresponding target file under the current attribute information data;
And the display module 700 is connected with the interactive synchronous module 600 in information data and outputs logic processing results and a display interface in real time.
It should be noted that:
① The technology of constructing the three-dimensional display interface by the 3D model construction module 100 is a direct application of the existing three-dimensional scene construction technology, wherein the principle details related to the inside of the 3D model construction module 100 are as follows:
1. three-dimensional modeling software:
in general, the 3D model building module 100 contains a three-dimensional modeling software that allows a user to create or edit a three-dimensional model. This software provides a series of tools such as vertex editing, patch creation, mesh smoothing, texture and texture application, etc. to construct complex three-dimensional objects.
2. Geometry information data storage:
The built three-dimensional model needs to be stored in a 3D model library. Geometric information generally includes vertex, edge, face, and volume information. These data structures are used to represent the shape and size of the model. For example, the vertex array stores the coordinates of all vertices in the model, while the face array defines the connection between the vertices to form the surface of the model.
3. File format:
The 3D model library typically stores model data using a standard file format, with the suffix "cm" + "in the original standard file format", such as "PDF" converted to a "cmPDF" format file. These formats allow model data to be exchanged between different software and can be read by various rendering engines, compatible with native format applications.
4. Model optimization:
in order to ensure smooth rendering and interaction, the built model needs to be optimized. This includes eliminating redundant vertices, edges and faces, simplifying model geometry, and optimizing the use of materials and textures.
5. Texture and texture:
In order to make the model look more realistic, textures and materials are applied to the model surface. Textures are maps that add visual effects to the model such as color, gloss, roughness, and transparency. The material defines how these textures interact with the light rays and how they look more realistic under different lighting conditions.
6. Illumination and shading:
Rendering of a three-dimensional scene also includes simulating lighting effects in the real world. This involves calculating how light rays impinge from a light source onto the mold and are reflected, refracted, or absorbed by the mold surface. The processing of shadows is also done at this stage, which is critical to the realism of the scene.
7. Animation and interaction:
The 3D model building block 100 supports animations, which will contain animation tools, allowing the creation of movements of the model. For interactivity, such as gaming or virtual reality applications, the model may contain bone and skin structures so that portions of the model may move independently.
8. Hardware acceleration:
for complex models and animations, the 3D model building block 100 may utilize a Graphics Processor (GPU) for hardware acceleration to increase processing speed and rendering efficiency.
② The storage module 200 stores geometric information data of each constructed three-dimensional scene model;
③ Regarding the information source module 300, it should be emphasized that:
1. concept of node bin:
a Node bin (Node Inventory) is a data structure for storing and managing all nodes (or elements) and their attributes in a three-dimensional scene model. Each node typically represents a geometric point, face or volume of the model.
2. And (3) data source identification:
in a three-dimensional model, a data source includes:
Internal databases-database management systems within the enterprise, such as relational databases (MySQL, postgreSQL, oracle, etc.), document databases (MongoDB, couchDB, etc.), or time series databases (InfluxDB, etc.), which store large amounts of structured and unstructured data.
External databases-other corporate or public databases such as cloud service provider' S storage services (AWS S3, azure Blob Storage, etc.), public data sets (e.g., government public data, scientific data, etc.).
File systems including local file systems, network file systems (NFS, SMB, etc.), and cloud file storage services (AWS S3, google Cloud Storage, etc.). The data stored by the file system may be in CSV, JSON, XML, excel or the like format.
Real-time data streams real-time data stream processing systems such as Kafka, apache Flume, amazon Kinesis, etc., are used to process and transmit large volumes of real-time data streams.
IoT devices, data generated by internet of things devices, such as sensor data, surveillance camera videos, and the like.
The system desktop AI browser integrates a browser inside, wherein the browser contains a plurality of selectable information, when a trigger instruction is sent, the browser correspondingly opens a folder to display the contained data information, and has rich personalized functions, including personalized new tag pages, weather, calendars, free PDF conversion, free AI assistants, software management, hot search list, website navigation and side bar split screen, thereby bringing better browser use experience for you.
3. Target file definition:
the target file refers to a file to which data stored in the node bin is to be written. These files store model data using a standard file format, with the suffix "cm" + "original standard file format", such as "PDF" converted to "cmPDF" format files.
Note that cmpdf is a file format unique to the system, cmpdf includes a corresponding pdf file, and is a format expression of a stereoscopic attribute.
4. The node storage process comprises the following steps:
And synchronizing data, namely synchronizing a data source and a target file, and ensuring the consistency of the data. This involves data conversion to accommodate the format requirements of the target file.
Node construction, namely, for each geometric point of the three-dimensional model, creating a node and filling corresponding data.
5. File system operation:
In the node bin, a file system operation is required to write the contents of the data source to the target file. This involves file creation, writing, closing, and deleting operations.
6. Data management and optimization:
in managing data in node bins, selection of data structures and algorithms may be required to optimize storage and access efficiency. For example, a hash table, tree structure, or graph structure is used to manage nodes and their relationships.
7. Error handling and consistency checking:
during data synchronization and storage, an error handling mechanism is required to ensure that the data is not corrupted by errors. Consistency checks may help ensure that the contents of the data source and destination files match.
8. Security and rights control:
in order to protect data from unauthorized access or modification, security measures and rights control need to be implemented. This includes file encryption, access token authentication, user authentication, etc.
9. Incremental update and synchronization:
If the three-dimensional model changes frequently, the node bins need to support incremental updates and synchronization to ensure that only the changed portions are reprocessed and stored.
10. Automation and scripting:
To improve efficiency, the management of the node bins and the data synchronization process may be generally implemented by script or automation tools, which may reduce the need for manual operations.
Further, the input module 400 obtains an external operation instruction through intelligent recognition;
the intelligent recognition specifically comprises direct selection recognition of a mouse and a keyboard, voice recognition and gesture recognition.
The built geometric information data of the three-dimensional scene model comprises vertexes of the model perimeter, model scenes and model names, and the vertexes, the model scenes and the model names are stored in a plurality of binary 3D model files;
The model adopts palace type scenes by default, and a user can select one of European type scenes, family type scenes, factory type scenes and office type scenes by himself.
Further, the attribute information data in the three-dimensional scene model contains detailed information of the model, and the attribute information data can be expanded in a self-defined manner;
the detailed information of the model comprises model scenes, model boundary points, model top vertexes and model node bin information;
the model node bin information specifically comprises the number of node bins, the size of the node bins and the positions of the node bins.
It should be noted that, the "model perimeter vertices" included in the geometric information data of the three-dimensional scene model refer to boundary vertices, and do not include perimeter demarcation points, the value range of which is small, so as to obtain the geometric figure of the model, and the "model boundary points" included in the detailed information of the model include perimeter demarcation points, the value range of which is small, so as to obtain the detailed information of the model.
Additionally, referring to fig. 2 and 3, the present invention further provides a three-dimensional scene interactive method performed by the three-dimensional rendering intelligent operating system, and the three-dimensional rendering intelligent operating system comprises the following steps:
s1, a 3D model construction module 100 generates geometric information data of a three-dimensional scene model and stores the geometric information data in a 3D model library;
S2, the storage module 200 acquires and stores attribute information data of the model;
S3, the information source module 300 selects an applicable model scene through an application program, generates node bins at geometric points of the three-dimensional scene model, and synchronously fills corresponding data sources and corresponding target files in each node bin to finish node storage;
s4, the input module 400 intelligently acquires an external operation instruction and sends the external operation instruction to the interactive synchronization module 600;
S5, the information analysis module 500 reads the corresponding three-dimensional scene model geometric information data and the corresponding three-dimensional scene model attribute information data, converts the three-dimensional scene model geometric information data into an internal format and outputs the internal format to the interactive synchronization module 600;
S6, the interactive synchronization module 600 calls attribute information data in the three-dimensional scene model by the information analysis module 500 according to the external operation instruction acquired by the input module 400, and then calls a data source and a corresponding target file under the current attribute information data;
s7, the display module 700 outputs the logic processing result and displays an interface in real time.
Specifically, the digital person is controlled by directly selecting recognition or voice recognition or gesture recognition through keyboard input or mouse to execute operation instructions;
the operation instruction specifically comprises forward, backward, leftward and rightward movement, ascending, descending, steering and selection.
Specifically, if a forward command is received, the interactive synchronization module 600 controls the digital person to forward, the visual angle in the three-dimensional scene advances forward, the three-dimensional display interface advances forward, if a backward command is received, the interactive synchronization module 600 controls the digital person to backward, the three-dimensional display interface retreats, if a left shift command is received, the interactive synchronization module 600 controls the digital person to move left, if a right shift command is received, the interactive synchronization module 600 controls the digital person to move right, the three-dimensional display interface moves right, if a rise command is received, the interactive synchronization module 600 controls the digital person to rise, the three-dimensional display interface rises, the interactive synchronization module 600 controls the digital person to fall, if a fall command is received, the interactive synchronization module 600 controls the digital person to turn, the three-dimensional display interface turns, the digital person visible range marks the synchronous turning, if a selected command is received, the interactive synchronization module 600 controls the selected model object to be displayed in the three-dimensional scene in a high-brightness mode, and simultaneously the interactive synchronization module 600 performs matching of a near node bin and a corresponding target file in the selected node bin.
Further, the interactive synchronization module 600 may control 360 degree turning of the digital person.
It should be noted that, when receiving different user instructions, the interactive synchronization module 600 can control the actions of the digital person (a virtual character) in the three-dimensional scene, and synchronously update the three-dimensional display interface. The digital person is here a virtual character whose movements and actions are controlled by input instructions from the user, i.e.:
1. forward, backward, left, right, up, down, and steer commands:
these commands are issued by the user through input devices (e.g., keyboard, mouse, voice, gamepad, etc.) to control the orientation and position of the digital person in three dimensions.
Upon receiving the forward command, the interactive synchronization module 600 calculates the distance and direction the digital person moves forward and updates the digital person's position.
Similarly, back, left, right, up, down, and turn commands all cause the digital person to move or change direction in three dimensions accordingly.
2. Synchronous pushing of three-dimensional display interfaces:
The movements of the digital person are synchronously reflected on the three-dimensional display interface, so that the user feels as if he is directly controlling the digital person to move in the virtual environment.
The three-dimensional display interface may use a view transformation (view transformation) to update the user's perspective to follow the movement of the digital person.
3. Digital human visual range identification synchronous turning:
when the digital person performs a turning operation, the viewing angle in the three-dimensional display interface is turned accordingly to keep the direction of the digital person seen by the user consistent.
The visual range identification may be a visual range or point of interest of the digital person that changes synchronously with the turning of the digital person.
4. Selecting an instruction:
when a user issues a selection instruction, the interactive synchronization module 600 identifies the selected model object.
The selected model object is highlighted in the three-dimensional scene so that the user can quickly recognize.
5. Matching of nearby node bins:
A node bin is a data structure used to store and manage geometry in a three-dimensional scene.
When a model object is selected, the interactive synchronization module 600 looks up the nearest node bin and obtains relevant data for the selected model object from it.
In order to further verify the superiority of the operating system and its interaction system of the present invention, a specific verification procedure is now given:
the test name is a three-dimensional presentation type intelligent operating system performance verification test.
The three-dimensional presentation intelligent operation system provided by the invention has the test purpose of verifying the performance of the three-dimensional presentation intelligent operation system, including three-dimensional presentation effect, intelligent operation function, system performance, multi-user cooperation capability and personalized customization service.
Test conditions:
1. and the hardware environment is a configuration computer, and has certain computing capacity and graphic processing capacity.
2. And installing a test operating system in a software environment to ensure the stable operation of the system.
3. Test data, namely preparing various types of data including texts, pictures, videos and the like.
4. The tester has the basic skill of operating the computer and knows the using method of the test operating system.
The test process comprises the following steps:
1. and starting the system, namely starting a computer by a tester, entering a three-dimensional stereoscopic presentation interface, observing stereoscopic presentation effect, and recording feeling and evaluation.
And the evaluation index is fidelity of the stereoscopic presentation effect, smoothness of the picture and interactive experience.
2. And the intelligent recognition and response are that the test personnel execute various operation behaviors, such as clicking, dragging, zooming and the like, and the system automatically provides corresponding operation suggestions. The accuracy and response speed of the operation advice are recorded.
Evaluation index, accuracy of operation advice (whether user intention can be accurately understood), response speed (time of advice is given).
3. Intelligent scheduling and optimizing, namely observing the use condition of system resources by test personnel, wherein the use condition comprises a CPU, a memory, a hard disk and the like. And recording the scheduling condition and the optimizing effect of the system resources.
And the evaluation index is CPU utilization rate, memory occupancy rate and hard disk read-write speed.
4. And (3) multiuser cooperation, namely inviting other users to join the system by the test personnel to jointly complete a task. The efficiency and fluency of the co-operation is recorded.
And the evaluation index is task completion time, communication fluency and resource sharing convenience.
5. And the data analysis and personalized customization are carried out by using the system for a period of time by using a tester, and user information and personalized customization service content collected by the system are collected. And analyzing the data, and evaluating the accuracy and satisfaction degree of personalized customization.
And the evaluation index is the accuracy of personalized recommendation and satisfaction degree of customized service.
6. And (3) exiting the system, namely after the test is finished by the test personnel, exiting the system, and recording the exiting condition and the data storage condition of the system.
And evaluating indexes, namely the smoothness of exiting the system and the integrity of data storage.
Test results:
1. the stereoscopic presentation effect is lifelike, smooth in picture and good in interaction experience. The evaluation score was 90 points.
2. And the intelligent recognition and response are accurate in operation suggestion and high in response speed. The accuracy score was 95 points and the response speed score was 90 points.
3. The system performance is that the CPU utilization rate is reduced by 10%, the memory occupancy rate is reduced by 20%, and the hard disk read-write speed is improved by 30%. The evaluation score was 95 points.
4. And the multi-user cooperation is that the task completion time is shortened by 30%, the communication is smooth, and the resource sharing is convenient. The evaluation score was 90 points.
5. And data analysis and personalized customization, wherein the personalized recommendation accuracy reaches 85%, and the satisfaction degree of the customized service reaches 90%. The evaluation score was 90 points.
6. And (3) exiting the system, namely exiting the system smoothly and completely storing data. The evaluation score was 95 points.
Conclusion of the test:
through experimental verification, the three-dimensional presentation intelligent operation system provided by the invention has good three-dimensional presentation effect, intelligent operation function, system performance, multi-user cooperation capability and personalized customized service, and has higher practical value and creativity. The scores of all the evaluation indexes are more than 90 minutes, which indicates that the system has higher performance and user satisfaction.
The invention provides a three-dimensional presentation intelligent operating system, which has the following functional effects:
1. the three-dimensional presenting technology is adopted, so that the visual experience of a user is improved;
2. The intelligent scheduling and optimization of the operating system are realized by utilizing an artificial intelligence technology, and the system performance is improved;
3. introducing a three-dimensional object recognition technology, realizing intelligent recognition and response to user operation, and providing intelligent operation suggestions;
4. the multi-user cooperation is supported, the seamless connection of shared resources and data is realized, and the cooperative work efficiency is improved;
5. the system has strong data analysis capability, provides personalized custom services for users, and meets the requirements of different users.
It should be noted that the above embodiments are only for illustrating the technical solution of the present invention and not for limiting the same, and although the present invention has been described in detail with reference to the preferred embodiments, it should be understood by those skilled in the art that the technical solution of the present invention may be modified or substituted without departing from the spirit and scope of the technical solution of the present invention, which is intended to be covered in the scope of the claims of the present invention.
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| CN105488839A (en) * | 2015-12-07 | 2016-04-13 | 上海市政工程设计研究总院（集团）有限公司 | Interactive operation system for three-dimensional scene and operation method thereof |
| WO2023124948A1 (en) * | 2021-12-31 | 2023-07-06 | 华为技术有限公司 | Three-dimensional map creation method and electronic device |
| WO2023159595A1 (en) * | 2022-02-28 | 2023-08-31 | 京东方科技集团股份有限公司 | Method and device for constructing and configuring three-dimensional space scene model, and computer program product |
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2024
- 2024-09-06 CN CN202411246875.XA patent/CN119127022A/en active Pending
Patent Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US20050234946A1 (en) * | 2004-04-20 | 2005-10-20 | Samsung Electronics Co., Ltd. | Apparatus and method for reconstructing three-dimensional graphics data |
| US20150143302A1 (en) * | 2013-11-15 | 2015-05-21 | Korea Advanced Institute Of Science And Technology | Method of providing virtual reality based three-dimensional interface for web object searches and real-time metadata representations and web search system using the three-dimensional interface |
| CN105488839A (en) * | 2015-12-07 | 2016-04-13 | 上海市政工程设计研究总院（集团）有限公司 | Interactive operation system for three-dimensional scene and operation method thereof |
| WO2023124948A1 (en) * | 2021-12-31 | 2023-07-06 | 华为技术有限公司 | Three-dimensional map creation method and electronic device |
| WO2023159595A1 (en) * | 2022-02-28 | 2023-08-31 | 京东方科技集团股份有限公司 | Method and device for constructing and configuring three-dimensional space scene model, and computer program product |
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