Virtual 3D Display Unit for Information Density on 2D Screens
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Solution Overview
Problem
Existing methods for simulating three-dimensional data display on two-dimensional devices face challenges in compatibility across various devices with different screen sizes and operating systems, making it difficult to effectively present multiple types of information in a compatible and visually appealing manner.
Innovation Solution
A method that involves determining the dimensions and orientation of a virtual three-dimensional display unit based on the information container, allowing it to adapt and display data on multiple faces, which can be rotated to maximize space utilization and present a multitude of data simultaneously.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Quantity of substance
If data is displayed in traditional two-dimensional format, then compatibility across different devices is maintained, but the amount of information that can be presented in limited space is restricted
Solution Approach 1:
The patent implements a three-dimensional virtual display unit that projects 3D visual representations onto a two-dimensional display surface. This allows multiple data elements to be arranged in spatial depth, enabling more information to be displayed within the same physical area by utilizing the perceived third dimension rather than requiring additional physical space.
Solution Approach 2:
The virtual display unit employs a nested structure where multiple faces of a 3D geometric figure (such as an icosahedron) contain multiple data elements within each face. This nesting approach allows hierarchical organization of information, with data elements contained within faces, which are contained within the overall 3D structure, maximizing information density in limited space.
2Adaptability or versatility
If a fixed three-dimensional display structure is used, then the visual representation is consistent, but adaptability to different screen sizes and device configurations is reduced
Solution Approach 1:
The virtual display unit is designed as a dynamic structure that automatically adapts to different display dimensions. The system calculates optimal geometric parameters (such as face angles and vertex positions) based on the specific screen size and aspect ratio, allowing the same 3D structure to be rendered effectively across various device configurations without requiring device-specific implementations.
Solution Approach 2:
The patent creates a universal 3D display framework that functions across multiple device types and screen sizes. By using mathematical projections and normalized coordinate systems, the same virtual display unit can be rendered on smartphones, tablets, computers, and other displays with different aspect ratios and resolutions, making the solution universally applicable without sacrificing adaptability.
3Quantity of substance
If multiple types of information are displayed simultaneously, then information density increases, but visual clarity and ease of interpretation may be compromised
Solution Approach 1:
The virtual display unit divides information into distinct segments organized on different faces of the 3D geometric figure. Each face can display a specific type or category of data, and users can mentally or physically rotate the display to focus on particular faces. This segmentation allows high information density while maintaining interpretability by separating related information into organized groups rather than presenting all data in a single undifferentiated space.
Data Source
AI summary
Disclosed is a method for simulating three dimensional display of data. The method comprises obtaining (S100) width and height for an information container, and obtaining (S110) width and height for a virtual three-dimensional display unit. Additionally, the method comprises determining (S120) a number of faces, width and height for each face of the virtual display unit, and an angle between adjacent faces of the virtual display unit. The method further comprises determining (S130) a rotation point, retrieving (S140) data for a first page, and determining (S150) width and height for the data of the first page. The method also comprises inserting (S160) the data of the first page into the first face, and then repeating steps (e) to (g) for each face of the plurality of faces. The final steps are to display (S170) and rotate (S180) the virtual display unit around its rotational axis.