Smart Cache Learning for Portal Navigation Nodes
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Solution Overview
Problem
Current portal navigation node caching mechanisms lack control over caching performance and data storage usage, as they cache entire navigation nodes regardless of property usage, leading to inefficient use of resources.
Innovation Solution
Implement a learning process to analyze navigation requests, record requested properties, calculate variance, and determine a threshold to selectively cache only relevant properties, adjusting caching behavior based on usage patterns.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Speed
If entire navigation nodes are cached regardless of property usage, then runtime performance is improved, but data storage space is wasted
Solution Approach 1:
The navigation node is segmented into individual properties, and only the frequently accessed properties are cached separately rather than caching the entire navigation node. This allows selective caching of specific properties (e.g., title, description, icon) based on their access frequency, thereby reducing storage space while maintaining runtime performance for the most commonly used properties.
Solution Approach 2:
Different properties of the navigation node are treated differently based on their local characteristics (access frequency). Properties with high access frequency are cached, while properties with low access frequency are not cached. This local quality approach ensures that storage resources are allocated efficiently to only those properties that provide the most value for runtime performance.
2Speed
If entire navigation nodes are cached regardless of property usage, then runtime performance is improved, but caching control is reduced
Solution Approach 1:
The system implements feedback by monitoring property access frequency and using this information to dynamically adjust caching behavior. The caching mechanism learns from usage patterns and adapts by caching properties that are frequently accessed while avoiding caching of rarely accessed properties, thereby providing organizations with control over the caching process to optimize both performance and resource usage.
Solution Approach 2:
The caching strategy transitions from a static approach (caching entire navigation nodes) to a dynamic approach where the caching behavior adapts based on observed usage patterns. The system dynamically determines which properties to cache based on their access frequency, allowing the caching control to be flexible and responsive to changing organizational needs.
3Quantity of substance
If selective property caching is implemented, then data storage space is optimized, but caching mechanism complexity increases
Solution Approach 1:
The caching mechanism serves itself by automatically monitoring property access frequency and making decisions about which properties to cache without requiring complex external control systems. The system self-adjusts by learning from usage patterns and automatically optimizing the cache contents, thereby reducing storage space without proportionally increasing mechanism complexity.
4Productivity
If learning process is used to analyze navigation requests, then caching optimization is achieved, but processing time during learning period increases
Solution Approach 1:
The learning process performs preliminary analysis of navigation requests to identify which properties are frequently accessed. By conducting this analysis in advance and building up the optimized cache gradually, the system prepares the caching mechanism to achieve optimal performance without incurring continuous processing overhead during normal operation. The initial time investment during the learning period enables long-term efficiency gains.
Data Source
AI summary
The disclosure generally describes computer-implemented methods, software, and systems for optimizing portal navigation node caching. A computer-implemented method includes starting a learning process to analyze at least one navigation request to at least one navigation node, wherein the navigation request requests at least one property of the at least one navigation node, examining properties of the at least one navigation node, recording to a property list at least one requested navigation node property of the at least one navigation node, calculating, using at least one computer, a variance between the at least one navigation node property recorded to the property list, and determining whether the calculated variance is above a threshold.


