馃殌 Architectural Optimization Request
Is your feature request related to a problem?
Currently, when the platform runs workspace search routines or parses extensive meeting files for semantic embedding mapping, large structural data aggregates are compiled directly into the LLM context wrapper payload. If a user queries a broad workspace containing sprawling multi-file histories, the raw data injection risks overflowing the downstream provider's maximum token context window capability.
Even if it doesn't overflow, passing repetitive, low-relevance structural data sequences creates context dilution, drives down summary accuracy, and spikes external API compute/token billing overhead.
Proposed Solution
Introduce an abstract context preprocessing utility layer. This middleware will dynamically rank retrieved textual chunks using a lightweight localized score filter (like BM25 or a localized Cosine Similarity threshold) and prune non-essential token sequences before compiling the final payload.
Proposed Implementation Details
- Dynamic Content Scoring Layer: Implement a preprocessing step that reads structural context fragments and matches them against user intent vectors, assigning relevance scores to individual paragraphs.
- Hard Token Limit Safeguard: Build a dynamic sliding window truncation loop. If aggregate chunks exceed a configured max boundary parameter (e.g.,
max_workspace_tokens: 4000), it gracefully drops lowest-scoring sections instead of letting the entire downstream API call crash with a payload error.
- Debug Logger Tracking: Integrate a system tracking matrix that logs the raw compressed efficiency parameters (e.g.,
Tokens Reduced: X% | Latency Optimizations: Yms).
Additional Context
Implementing this optimization directly protects the application layer against massive enterprise-scale data inputs, drops average network payload weight, and saves operational API resource budgets.
馃殌 Architectural Optimization Request
Is your feature request related to a problem?
Currently, when the platform runs workspace search routines or parses extensive meeting files for semantic embedding mapping, large structural data aggregates are compiled directly into the LLM context wrapper payload. If a user queries a broad workspace containing sprawling multi-file histories, the raw data injection risks overflowing the downstream provider's maximum token context window capability.
Even if it doesn't overflow, passing repetitive, low-relevance structural data sequences creates context dilution, drives down summary accuracy, and spikes external API compute/token billing overhead.
Proposed Solution
Introduce an abstract context preprocessing utility layer. This middleware will dynamically rank retrieved textual chunks using a lightweight localized score filter (like BM25 or a localized Cosine Similarity threshold) and prune non-essential token sequences before compiling the final payload.
Proposed Implementation Details
max_workspace_tokens: 4000), it gracefully drops lowest-scoring sections instead of letting the entire downstream API call crash with a payload error.Tokens Reduced: X% | Latency Optimizations: Yms).Additional Context
Implementing this optimization directly protects the application layer against massive enterprise-scale data inputs, drops average network payload weight, and saves operational API resource budgets.