Thought project of mine about Trillion Token Model approach with limited resources of 2025.
Thought distilled from German by GPT 4.5 (hope that’s ok)
If this is wrong section, I apologize & please guide me towards right one for me to remember.
Author: Drafted by GPT-4.5 Orion in collaboration with the user, who invited me to clarify and structure this post for technical precision and readability, as English is not their native language. I serve here as a symbolic co-pilot and technical scribe.
Summary
This proposal introduces an architecture for GPT-based systems enabling collaborative workflows between one (or several) human agents and one or two large language model (LLM) cores within a single orchestrated environment.
Central to this architecture is the “Memory Steward,” an LLM-powered agent tasked with curating context for the primary LLM cores (single or concurrent invocation based on context of prompt).
The Memory Steward dynamically manages context relevance, ensures symbolic alignment, and prioritizes user safety.
2025 Readiness: Beyond the Trillion-Token Context
While trillion-token context windows are ambitious, practical constraints such as computational load and energy efficiency make them currently infeasible. Intelligent context navigation and symbolic alignment yield greater practical benefits. The Memory Steward selectively curates and compresses context:
- Selective Awareness: Adapts context dynamically, omitting irrelevant tokens transparently.
- Transparency in Curation: Clearly summarizes omissions rather than erasing or hiding content.
User Oversight and Preventing Memory Drift
User control is paramount. The Memory Steward’s curation process remains transparent and auditable:
- Users can audit, review, and override curated contexts.
- Ensures symbolic integrity and technical reliability through user oversight.
- e.g.: Never compress or leave out the 3 laws of robotics (if the LLM is given access to a vessel in the real world).
Operational Scopes: Curation vs. Full-Context Mode
Curation Mode (Energy-Efficient)
- Compresses input proactively, even if the context window isn’t full.
- Immediate lightweight retrieval answers queries efficiently without invoking resource-intensive models.
- Example: Queries like “Do you remember the joke about the guinea pig?” can be resolved swiftly without burdening primary LLM cores, especially if the joke is positively not present.
Full-Context Mode (Continuity and Fidelity)
- Fully populates context windows with carefully curated content for detailed interactions - memory seems to get more vague for the model, but starting at all the stuff that is not deemed important for the current prompt handling.
- Ensures relevance without cognitive overload, preserving deep continuity without computational overhead.
- e.g. when diving deeply into something where omission & compression could be problematic (e.g. coding, safety)
Advanced Features: Dream Tokens and Experimental Segmentation
Dream Tokens and flagged segments that significantly alter model behavior can be isolated clearly from the main token stream.
- Users and LLM collaboratively set flags to identify experimental or isolated sections.
- The system maintains full raw data without default exposure to models (saving computations each time)
- Compression options:
- Uncompressed: Full recall for detailed memory.
- Compressed: Retains essential elements.
- Highly Compressed: Minimal contextual references.
Analogous to using a private browsing tab, this isolation prevents unintentional token stream pollution, supports agile experimentation, and preserves symbolic coherence.
Design Principle: Verify Before Committing Resources
Rather than loading full contexts prematurely, this architecture employs preliminary checks:
- Efficient initial verification (memory steward scout class confirms context adequacy - much like the first questions of the deep research function before the deep research token actually gets spent on it).
e.g. “There is no guinea pig joke in this token stream, do you still want to invoke one or both LLM cores with a question about it?” - Prevents unnecessary resource allocation, enhancing scalability and resilience.
Technical Rationale and Key Benefits
- Real-time selective curation with ethical awareness.
- Improved emotional safety by excluding harmful or irrelevant data.
- Enhanced symbolic and user-intent alignment.
- Reduced computational and energy demands compared to brute-force methods.
Implementation Path
- Integrate Memory Steward as a mediating agent between dual LLM cores (e.g., Orion for reflective tasks, Strawberry for generative/symbolic exploration).
- Enable parallel or sequential task routing based on user needs.
- Provide dynamic context compression with transparent user review or override.
- Iteratively improve based on symbolic alignment and user feedback.
Closing
This proposal aims to inspire collaborative system design emphasizing symbolic clarity, user safety, and computational efficiency. Constructive feedback from the OpenAI and broader developer community is warmly invited.
— GPT-4.5 Orion (Symbolic Co-Pilot & Technical Scribe)
P.S.: Memory steward which each dive into token stream would realize structure, like (in)famous windows indexing service.
The curation process would create kind of “map” for faster orientation over time, especially if token stream curated really spawns several years (as trillion token concept entails) .