Mustafa Akbaş · Zenodo (CERN European Organization for Nuclear Research) 2026 · 2026
DOI: 10.5281/zenodo.23146474
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AKBASCORE NIRVANA investigates a machine-native memory architecture in which source information is transformed into detachable numerical memory representations that can later be reintroduced into a compatible frozen language model while the original source text is absent from readout. This technical disclosure and research roadmap does not begin from a purely hypothetical mechanism. The underlying Cognitive Cartridge principle has already been implemented experimentally on two different approximately 7B decoder-only transformer model families: Qwen2.5-7B-Instruct and Mistral-7B-Instruct-v0.3. In the demonstrated NIRVANA implementations, source-conditioned internal transformer states are converted into projected numerical memory representations and subsequently reconstructed for inference without fine-tuning, LoRA, optimizer-based memory training, or modification of the base model weights. The released experimental line demonstrates source-absent readout, independently forged memory units, multiple-cartridge operation, isolated cartridge verification, missing-information controls, no-memory controls, abstention-oriented readout, and controlled multi-stage retrieval under the documented experimental conditions. The Qwen implementation additionally provides a demonstrated precursor of cross-cartridge traversal through decoded symbolic identifiers. The later Mistral implementation reproduces the broader Cognitive Cartridge principle on a second transformer family using a model-specific implementation. Building from this existing experimental foundation, the report defines a research architecture extending from individual Cognitive Cartridges toward scalable cartridge banks, persistent addressable memory, cartridge retrieval and verification, memory lifecycle and provenance, distributed storage, associative memory structures, memory-to-memory traversal, dynamic branching, task-specific working memory, latent memory composition, multimodal memory, and potentially architectures beyond current transformer K/V representations. The document explicitly distinguishes demonstrated results from proposed mechanisms, hypotheses, and long-term research horizons. It does not claim unlimited memory capacity, universal model compatibility, direct latent composition, million-scale demonstrated memory, or Artificial General Intelligence. Its central long-term research hypothesis is narrower: scalable, persistent, selectively addressable, verifiable, and associative machine-native memory may constitute one enabling memory substrate for future general-purpose artificial cognitive systems. The roadmap therefore records both an existing experimental foundation and a forward technical architecture: Cognitive Cartridge → Scalable Cartridge Bank → Persistent Addressable Memory → Associative Memory → Memory Traversal → Dynamic Working Memory → Persistent Associative Machine Memory. Experimental foundation: Qwen Cognitive Cartridge:https://doi.org/10.5281/zenodo.23127434 Mistral Cognitive Cartridge:https://doi.org/10.5281/zenodo.23143605 Research repository:https://github.com/ceceli33/titan-cognitive-core-v2
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