Which companies are better at building smart parks and smart scenic spots? It is best to answer with examples.

Widely used in smart cities, smart parks, smart buildings, smart factories, smart manufacturing, smart water, smart energy, smart photovoltaic, smart wind power, smart electricity, new infrastructure, smart operation and maintenance, smart government affairs, Digital twin, two-dimensional configuration, three-dimensional configuration and data visualization projects in various industrial Internet industries such as smart transportation, national defense and public security, smart medical care, finance, and scientific research.

It has now introduced the mature graphics and image rendering technology, efficient design and development workflow, and ultimate user experience in the game field to the field of data visualization in many industries. Over the years, it has gained attention and favor from many parties in the industry by virtue of its technical strength and self-developed product advantages. Taking the cold chain smart park scenario as an example, the virtual cold chain park built based on Web 3D development technology and lightweight 3D modeling technology restores the buildings, roads, parking lots and other equipment and facilities in the park according to 1:1 modeling . Through HT's self-developed engine, a dark industrial technology-style park effect is rendered, giving people an eye-catching impact. It can also be combined with the PBR physical rendering material system to render real park environment effects.

Select a key city from the Chinese map scene to enter the park scene. The opening is in the form of an automatic roaming, surrounding the entire park scene, and introducing the overall layout and architectural structure features of the park one by one. By implementing an interactive three-dimensional web scene, you can zoom, pan, and rotate, and each element in the scene can respond to interactive events.

Use 3D visualization technology to integrate multi-source data from each subsystem, and display the basic information of each building in the park through click interaction, making the purpose of the building, number of floors, and responsible persons of each system clear. Clearly. Double-click the building to drill down to the floor overlay scene inside the building. The user can view the details of any floor scene and restore it 1:1 according to the equipment point distribution in the floor CAD drawing, including smoke sensor, temperature sensor, access control, manual alarm, Firefighting, cameras and other equipment.

Focus on the status of the equipment and use icons of different colors to represent different equipment statuses, namely normal color, fault [yellow], alarm [red], and offline [gray]. Once the equipment status is abnormal, abnormal prompts will be highlighted in the scene, and operation and maintenance personnel can repair it as soon as possible. To implement this function, the backend pushes status parameters to the frontend based on the judgment of the device monitoring sensor threshold, and the frontend changes the coloring of the corresponding device icon based on the status parameters. The equipment monitoring of the digital twin cold chain park uses artificial intelligence analysis and other technologies to analyze and judge real-time equipment data and historical data, perform real-time diagnosis, inform the health status of the equipment, and transform from manual preventive maintenance to intelligent predictive maintenance.

It also provides a solution that combines GIS maps to display national transportation hub data points and their dynamic changes in real time. The positioning of the HT for Web GIS product is to use the product's powerful visualization technology to integrate the Geographic Information System (Geographic Information System). System, GIS) data for rich visual display, enabling a large number of point data to be presented on a three-dimensional map. The advantage of using GIS is that more map details can be loaded through multiple levels of detail (LOD), and the specific location of each cold chain park can be directly understood.

The built smart park realizes intelligent infrastructure, informatization of planning and management, convenient public services, refined social governance and modernization of industrial development. Then, the environment, energy consumption, personnel, parking and other data are presented through the 2D panel to effectively and timely achieve pre-warning, in-process monitoring and post-event analysis, improve the efficiency of park management, improve the safety index of the park, and promote the intelligent development of the park. .

The energy consumption, environmental monitoring, lighting conditions, security conditions, etc. of the entire park can be displayed through the intelligent integrated platform, realizing "one screen overview" of park operation safety and "one network" for comprehensive park management. unified management". By making the industrial park building transparent, managers can easily view the overall layout and structure of the building. Update the building's energy consumption for the day every day, and keep abreast of the building's energy consumption data and branch energy consumption data.

Using advanced technologies such as informatization and artificial intelligence, through data sensing collection, network information application, centralized summary analysis, application decision-making services and other links, the park's "safety and environmental energy", economic operation, and emergency management are integrated. The chemical linkage platform realizes scientific early warning, measurement and management linkage, dynamic prevention and control, and intelligent decision-making for all aspects of the park's safety risks, environmental pollution, energy consumption, and emergency command. Building a multi-dimensional integrated management and control system has improved the park's systematic, scientific, refined and information-based management level.