Predictive Region Activation for Virtual Universe Resource Management
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Solution Overview
Problem
Current virtual universe systems lack efficient tracking and management of objects and avatars within a range, leading to resource inefficiencies and performance issues due to the need for constant region activation and deactivation.
Innovation Solution
Implement a predictive system that identifies the current location and vectored movement of avatars to proactively activate adjacent regions within a virtual universe, deactivating unpopulated regions and suspending state updates, thereby optimizing resource allocation and reducing activation times.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If regions are kept active to ensure immediate avatar interaction, then interaction responsiveness is improved, but resource consumption increases
Solution Approach 1:
The system performs preliminary actions by predicting avatar movement trajectories and pre-activating regions that will be needed in the future. The grid manager forecasts avatar positions and proactively loads region data before avatars actually reach those areas, eliminating activation delays while avoiding continuous activation of all regions.
Solution Approach 2:
The system dynamically adjusts region activation states based on real-time avatar positions, movement vectors, and predicted trajectories. Regions transition between active and inactive states dynamically rather than remaining static, optimizing resource usage by activating only regions that avatars are likely to visit soon.
2Measurement precision
If all regions are continuously monitored and kept active, then object tracking accuracy is improved, but system complexity increases
Solution Approach 1:
The system applies different monitoring qualities to different regions based on their current relevance. Regions containing avatars or predicted avatar destinations receive high-level monitoring with full object tracking, while distant inactive regions receive minimal or no monitoring, reducing overall system complexity while maintaining tracking accuracy where needed.
Solution Approach 2:
The virtual universe is segmented into multiple regions with different activation states. The system manages regions independently, activating only those that are currently relevant to avatar activities. This segmentation allows precise tracking in active regions without the complexity of monitoring all regions simultaneously.
3Loss of energy
If regions are deactivated to conserve resources, then resource efficiency is improved, but region activation delays occur
Solution Approach 1:
The grid manager performs preliminary actions by predicting which regions will be needed soon based on avatar movement vectors and trajectories. Regions are pre-activated before avatars actually reach them, so when avatars arrive, the regions are already loaded and ready, eliminating perceptible activation delays while maintaining resource efficiency by not keeping all regions active.
4Device complexity
If region boundaries are made larger to reduce the number of regions, then region management complexity is reduced, but object interaction across boundaries becomes less efficient
Solution Approach 1:
The system dynamically manages region boundaries and activation states. When avatars approach region boundaries, the system proactively activates adjacent regions to ensure smooth interactions. This dynamic approach maintains small region sizes for efficient boundary handling while reducing the practical impact of having many regions through selective activation.
Data Source
AI summary
A computer implemented method, a computer program product, and a data processing system manage regions within a virtual universe. A current location of an avatar is identified within a virtual universe, the current location being within a currently populated region. A vectored movement of the avatar is identified. Any adjacent region that may probabilistically encounter a horizon of the avatar within a region activation time of the virtual universe is identified. If the adjacent region is deactivated, then the adjacent region is activated. An unpopulated region that is currently active is identified, wherein the unpopulated region is within an extended distance from the avatar's current location. The unpopulated region is then deactivated.


