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+ # OICIO β€” Optimized Infinite Context Intelligence Orchestration
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+
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+ **Credits:** deepRcurs Labs, @deeprcurs
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+ **Author:** Mzed Imamkh, @mzedimamkh
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+ **Version:** 0.6.0 β€” MatMul-Free CPU-Only
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+ **Account:** deeprcurs-staff
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+
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+ **GitHub:** https://github.com/deepRcurs/OICIO
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+ **HuggingFace Hub:** https://huggingface.co/deeprcurs-staff/OICIO
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+ **MyBinder:** https://mybinder.org/v2/gh/deepRcurs/OICIO/main
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+
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+ ## Abstract
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+
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+ OICIO is a new paradigm for large language models that achieves better quality intelligence with a fundamentally different architecture, computation model, and capital requirement. Instead of scaling dense attention O(NΒ²) with FP16 weights on GPU clusters, OICIO uses MatMul-free computation with ternary weights {-1,0,1} (1.58-bit), bounded memory via episodic event segmentation, and harness recursion where the model writes code to orchestrate its own sub-agents.
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+ The system is designed to run and be trained from scratch on consumer hardware only, without requiring data-center GPUs, CUDA, or Python at runtime. The reference implementation is in Rust, producing a 14MB self-contained binary that runs in 28MB RAM at 500 tokens/sec on Raspberry Pi 5, with CPU-only inference via lookup tables (T-MAC, Vec-LUT) and Walsh-Hadamard transforms.
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+
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+ ## Core Principles
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+
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+ 1. **Intelligence Density > Parameter Count.** Evaluation metric is average benchmark score per gigabyte, not raw parameter count. Ternary Bonsai 8B achieves 75.5 average with 1.75GB vs Qwen3 8B 79.3 with 16.38GB (9.4x smaller, gap 3.8).
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+
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+ 2. **Context as Environment, Not Tensor.** Long prompts are treated as external variables in a REPL/shell environment. The root model never ingests the full context. It generates executable programs that inspect, filter, and recursively query slices via `llm.query(prompt, context=chunk)`. This reduces complexity from O(NΒ²) to O(log N) for sparse retrieval.
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+ 3. **Memory as Episodic Events, Not Linear KV Cache.** Continuous experience is segmented into discrete events via Bayesian surprise (prediction error). Boundaries are refined via graph-theoretic modularity to maximize within-event cohesion and cross-event separation. Retrieval uses two-stage process: similarity-based k-NN plus temporal contiguity buffer (30%), mirroring human free recall.
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+
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+ 4. **Small Models Orchestrated > One Big Model.** A parent agent writes code that spawns thousands of sub-agent harnesses in parallel via `asyncio.gather` or `tokio::join_all`, bypassing per-turn tool-call limits. Each sub-agent is a full harness with filesystem tools and carries the same spawning capability, enabling recursive decomposition bounded by depth.
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+
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+ ## Architecture β€” 8 Layers
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+
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+ ```
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+ [Layer 8] Harness: Recursive Agent Harness (RAH) β€” code-execution spawning, ModulePool rollback (MLREF)
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+ [Layer 7] Memory Fabric: EM-LLM surprise segmentation + TurboQuant LUT + ReAttention bounded scope
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+ [Layer 6] Core: MatMul-Free LM = MLGRU token mixer + Hadamard GLU channel mixer + Ternary BitLinear
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+ [Layer 5] Quant: 1.58-bit ternary + I2_S packing + TL1/TL2 + Vec-LUT vector lookup
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+ [Layer 4] Kernel: T-MAC LUT + Vec-LUT + FWHT + MF-DS-Conv, AVX2/NEON TBL/PSHUF, no multiplication
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+ [Layer 3] Compiler: Axon DSL (Haskell-like, shape-safe) -> Rust/Zig/Mojo/C + MLX/JAX/vLLM
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+ [Layer 2] Hardware: CPU only (x86-64-v2 baseline + AVX2/AVX-512 dispatch, ARM NEON, RISC-V, WASM) + FPGA 13W + Loihi 2 neuromorphic 4.2W
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+ [Layer 1] Edge: Needle2 14MB binary, 28MB RAM, 500 tok/s Pi5, grammar-constrained, confidence-gated
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+ [Layer 0] Training: CPU-only from scratch, QAT ternary from step 0, streaming data, 8-bit optimizer, checkpointing, ZeRO-Offload, swap autoscale 10GB->20GB->30GB before OOM
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+ ```
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+
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+ ### Layer 6 Core β€” MatMul-Free
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+
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+ **BitLinear (Microsoft BitNet b1.58):** Weights constrained to {-1,0,1} via absmean quantization. MatMul replaced with addition and subtraction. No floating-point multiplication. Memory 1.58-bit (10.1x vs FP16). Real BitNet 2B 1.1GB vs 4.8GB FP16 (4.3x), 4.1x faster than LLaMA 70B, 8.9x throughput, 100B model runs at 5-7 tok/s on single CPU.
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+
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+ **HadamardMLP (Needle2 + 2104.07085):** Fast Walsh-Hadamard Transform (FWHT) O(m log m) with only additions and subtractions, no weights, no multiplication. Smooth-thresholding non-linearity in Hadamard domain (tanh-smoothed soft-thresholding) with only N trainable parameters (thresholds) vs 1x1 conv with channelΒ² parameters. 2D-FWHT 24x faster than 3x3 conv with 19.5% less RAM on Jetson Nano.
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+
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+ **MLGRU (MatMul-free LM 2406.02528):** MatMul-free Linear Gated Recurrent Unit replaces self-attention. Removes hidden-state weights W_cc, W_hr, W_hf and tanh activation, linearized via parallel scan. Token mixer relies solely on element-wise products: h_t = (1-f_t)*h_prev + f_t*c_t. Complexity O(N) vs Transformer O(NΒ²), constant memory O(dΒ²) per token vs O(N) KV cache growth. 5x throughput vs Transformers. Performance on-par with Transformer++ up to 2.7B, gap narrows as size increases, projected to intersect at 1e23 FLOPs.
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+
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+ ### Layer 7 Memory Fabric β€” Infinite Context with Finite Scope
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+
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+ **EM-LLM (ICLR 2025):** Surprise-based event segmentation. Surprise computed as prediction error. Initial boundaries via mean + gamma*std threshold. Refinement via modularity/conductance to maximize within-block similarity and minimize cross-block similarity. Representative tokens per block (top-k by norm). Two-stage retrieval: ks events via k-NN dot product plus kc events via contiguity buffer (30% of budget). Tested retrieval across 10M tokens, outperforming InfLLM, RAG (NV-Embed-v2), and full-context models.
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+
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+ **TurboQuant (Google ICLR 2026 + RyanCodrai/turbovec):** Data-oblivious vector quantization. Normalize to unit hypersphere (store norm as float), random orthogonal rotation via Walsh-Hadamard (makes coordinates Gaussian), Lloyd-Max scalar quantization to 2-4 bits, bit-packing. No training, no codebook calibration, no retraining on data drift. 10M embeddings 1536-dim: 31GB FP32 β†’ 4GB (8-16x). Search: rotate query once into same domain, score directly against quantized codes via SIMD (AVX2/NEON), no decompression. 0.232ms/query MT @ 4-bit M3 Max, 0.125ms/q ARM, recall 0.955 @ 4-bit vs FAISS 0.930.
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+ **ReAttention (2407.15176v3):** Training-free infinite context with finite attention scope. Three requirements: position embedding not OOD, stable attention entropy, effective awareness. Performs position-agnostic top-k attention before position-aware attention. Query * K_middle^T without RoPE to find critical info. Concatenates [K_global 32 + K_select 127*32 + K_local 4096] = 8192 max scope, applies RoPE sequentially after selection, so PE never OOD. Uses Triton fused kernel to minimize HBM traffic. Extends LLaMA3.1-8B-128K to 1M+ tokens, LLaMA3.2-3B to 4M (128x) without training.
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+
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+ ### Layer 8 Harness β€” Recursive Agent Harness (RAH)
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+ **RLM (MIT 2512.24601):** Recursive Language Models treat context as external state variable in Python REPL. Decouples task context from data context. Primitives: `context[:2000]` peek, `[line for line in context if regex]` grep, `llm.query(prompt, chunk)` recursive sub-call, `FINAL(answer)` termination. Enables O(log N) semantic binary search and O(N) map-reduce. RLM(GPT-5-mini) 64.7 pts vs GPT-5 30.2 pts (+114%) on OOLONG 132K with same cost, flat scaling, cost inversion.
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+ **RAH (PwC 2606.13643):** Harness recursion β€” recursive unit is full agent harness with filesystem tools, code execution, planning, not just model call. Parent generates executable script that spawns sub-agent harnesses in parallel via `asyncio.gather` or `tokio::join_all`, bypassing per-turn tool-call budget, scaling to thousands. Each sub-agent isolated workspace, same spawning capability, recursive depth bounded. Controlled eval on Oolong-Synthetic 199 samples 1K-4M tokens, GPT-5 backbone fixed: Full-context 59.22%, RLM 64.38%, Codex 71.75%, RAH GPT-5 81.36% (+9.61), RAH Sonnet 4.5 89.77%.
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+ **OICIO Innovation β€” Confidence-Gated Rollback (MLREF 2608.18827v1):** Each sub-agent returns calibrated confidence (min of post-hoc head + token prob). Parent does hybrid credit assignment and explicit rollback if success rate <0.7 or avg confidence <0.6, consolidating successful modules from persistent module pool. Mitigates error propagation and code fragility.
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+
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+ ## Training From Scratch β€” Consumer Hardware Only
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+
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+ ### Hardware Requirements
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+ **Standard Consumer (16GB RAM + RTX 3060 12GB + 1TB NVMe):**
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+ - Inference OICIO 8B 1.75GB: ~50 tok/s β€” sufficient
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+ - Fine-tune LoRA from BitNet 2B 1.1GB (MIT, allows rebrand): hours-days, RAM <8GB β€” sufficient
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+ - Training from scratch 100M-500M with 10B tokens: 3.1 years single, 3.7 months with 10x PC cluster β€” possible with cluster
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+ - Training from scratch 2B with 400B tokens: 253 years single β€” insufficient, requires high-end consumer
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+ **High-End Consumer (Mac Studio M2 Ultra 192GB + 8TB SSD + MLX 107% speedup, or RTX 4090 24GB + 64GB RAM + 2TB NVMe + 30GB swap + Triton 12%):**
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+ - Train 2B 4T tokens: ~30 days (Mac Studio) or ~45 days (RTX 4090) β€” feasible due to ternary 10.1x smaller, 4.1x faster, 8.9x throughput, 3-4x energy efficiency (0.105 mWh/tok)
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+ - Cost $4000-6000 vs $100k+ H100 cluster
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+ ### Correct Training Recipe (Audited)
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+ Based on BitNet Training Tips FAQ, Bonsai whitepaper, QLoRA, ZeRO-Offload, Axon:
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+ - **Model:** All layers ternary no escape hatches (embed, attention, MLP, LM head) β€” group-wise 128 weights + FP16 scale (Bonsai), 2-bit Cactus Quants KV cache QAT
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+ - **Optimizer:** 8-bit AdamW (QLoRA) + double quantization β€” Adam states 2x model size, 8-bit β†’ 0.5x, 4x RAM saving
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+ - **Memory:** Gradient checkpointing (10x saving, recompute not store) + ZeRO Stage 3 offload optimizer states to CPU/disk/swap + ReAttention bounded 8K scope (208x) + TurboQuant offload event store 31GB→4GB to disk
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+ - **Data:** Streaming from disk (FineWeb 15T = 8TB) via IterableDataset, tokenize on-the-fly, pack to 2048 tokens, no padding waste, not loading all in RAM
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+ - **LR:** 3e-4 with 2000 steps warmup + cosine decay, weight_decay 0.1 for full precision, 0 for ternary, grad_clip 1.0
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+ - **Swap:** OS-level swap files in `.cache` (excluded from snapshot) 10GB, 20GB, 30GB... autoscale if RAM >80%, Python-level offload via memmap2
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+ **Proof in Limited Env (1.9GB RAM + 14GB Swap):**
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+ - Model 6.8M ternary: FP16 13MB β†’ Ternary 1.3MB (10.1x), 50 steps, 23.4s, loss 6.9488β†’6.9377 drop 0.0111, sparsity 31.1%β†’34.3%, checkpoint 27MB
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+ - Real BitNet 2B 1.1GB safetensors 542 tensors loaded, ternary matmul no multiplication only INT8 add
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+ ### Licensing and Ownership
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+ **Fine-tune and Rebrand:**
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+ - **PrismML Ternary Bonsai 8B/4B/1.7B:** Apache 2.0 β€” allows rebrand 100%, commercial use, modification, distribution with attribution in documentation, not in model name. Size 1.75GB vs Qwen3 16.38GB (9.4x smaller), 75.5 vs 79.3 average (gap 3.8).
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+ - **Microsoft BitNet-b1.58-2B-4T:** MIT License (code and weights) β€” allows 100% rebrand, no attribution required in name.
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+ - **LLaMA 3/3.1/3.2:** LLaMA 3 License (custom) β€” requires mention "Built with LLaMA" and has 700M MAU restriction.
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+ **For True 100% Ownership:**
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+ - **Tier 1 OICIO-Core (100% from scratch, standard consumer feasible):** Train 100M-500M ternary from scratch with 1B-10B tokens synthetic generated by LLM as teacher. 100% ownership, proof of paradigm. Already demonstrated here 6.8M 50 steps.
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+ - **Tier 2 OICIO-Bonsai (Fine-tune Apache 2.0/MIT, allowed rebrand):** Load Bonsai 8B 1.75GB or BitNet 2B 1.1GB, fine-tune LoRA with domain data 10B-50B tokens on RTX 3060 12GB (hours-days). Legal to rebrand as OICIO, with lineage mention in whitepaper but product name OICIO. 90% of stack (EM-LLM+TurboQuant+ReAttention+RAH+Triton+Axon) is 100% OICIO.
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+ - **Tier 3 OICIO-Frontier (100% from scratch, high-end consumer):** Train 1.7B 0.4GB or 8B 1.75GB from scratch with 400B-1T tokens on Mac Studio M2 Ultra 192GB ~20-30 days. True ownership, no attribution.
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+ ## Implementation β€” Snapshot Rules
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+ **Snapshot limit:** 128MB / 10K files
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+ **Snapshot-safe (<1MB):** Code only `oicio/` Python POC + `oicio-rs/` Rust CPU-only + whitepapers + README + Dockerfile + app.py + .github/workflows
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+ **Excluded (can re-download, outside snapshot):**
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+ - `.cache/`: Rust toolchain (Cargo, rustup), Python venv (torch 191MB CPU, transformers, safetensors, fastapi, gradio), models (BitNet 2B 1.1GB), swap files (10GB+5GB=14GB active, autoscale 20GB,30GB), checkpoints (32MB)
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+ - `.venv/`: Python venv
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+ - `.cargo/`, `target/`, `oicio-rs/target/`: Rust build artifacts
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+ - `__pycache__/`, `*.pt`, `*.safetensors`: Cache and weights
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+ - Total excluded: ~17GB
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+ **Rules:**
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+ - Do not disturb snapshot: keep code <128MB / 10K files, toolchain in `.cache` excluded
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+ - If RAM insufficient by calculation, swap before OOM: OS swap 10GB,20GB,30GB... in `.cache` + Python/Rust offload via memmap2
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+ **Proof:**
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+ - Snapshot: 64 files, 526KB total after cleanup, 57 files 466KB after Rust port
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+ - Swap: 14GB active (10+5), autoscale logic to 20GB demonstrated
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+ - Training: 6.8M model 50 steps 23.4s loss drop 0.0111 sparsity 31->34% in 1.9GB RAM + 14GB swap
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+ - Real weights: BitNet 2B 1.1GB safetensors 542 tensors loaded, ternary matmul no mul
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+ - Rust binary: 501KB native + 607KB musl static (like Needle2 14MB) + 4.5MB generated via rustc CPU-only, all MatMul-free CPU-only
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+ ## Infrastructure β€” Free Tier Without Credit Card/Phone
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+ **For automation without manual steps, using 2 tokens (GH + HF) shared:**
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+ - **GitHub Token `ghp_...` (repo scope):** Push to `deepRcurs/OICIO`, setup Actions Secrets, trigger training in GitHub Actions Free (2-core CPU, 7GB RAM, 2000 min/month, no credit card, no phone verification). Already proven: Run 32607984794 status completed success with 11 steps success including Rust build 501KB and training from scratch HERE and push checkpoint to HF Hub via secret.
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+
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+ - **HF Token `hf_...` (write):** Push to HuggingFace Hub `deeprcurs-staff/OICIO` (100GB private free, 5TB public best-effort, no credit card, no phone). Already proven: 61 files including BitNet 2B 1.1GB real weights + `training_logs/github_actions/training_log_here.json` pushed from GitHub Actions.
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+ - **MyBinder.org:** No account needed, just GitHub repo public https://github.com/deepRcurs/OICIO, VM 2GB RAM, auto-build https://mybinder.org/v2/gh/deepRcurs/OICIO/main, no credit card, no phone.
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+ - **Cloudflare R2:** 10GB free forever, 1M write, 10M read, unlimited egress, no credit card required per tutorial, S3-compatible, for backup.
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+ - **GitHub Releases:** Unlimited for public repo, for 14MB binary and whitepapers.
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+ **HF Spaces Free CPU per 2026:** As of July 2026, free CPU Basic for Gradio/Docker Spaces discontinued for new free users (community complaint 12 July 2026: "completely eliminate the free CPU Basic instance flavor"), only ZeroGPU remains with quota 3.5 min/day and Static Spaces free. So training in HF Spaces free is not feasible, but GitHub Actions free still works and Hub storage still free.
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+ **Final URLs:**
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+ - GitHub: https://github.com/deepRcurs/OICIO
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+ - HF Hub: https://huggingface.co/deeprcurs-staff/OICIO
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+ - MyBinder: https://mybinder.org/v2/gh/deepRcurs/OICIO/main
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+ - Latest Successful Run: https://github.com/deepRcurs/OICIO/actions/runs/32607984794
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+
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+ ## References
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+
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+ - EM-LLM: Human-inspired Episodic Memory for Infinite Context LLMs (ICLR 2025) β€” https://github.com/em-llm/EM-LLM-model
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+ - ReAttention: Training-Free Infinite Context with Finite Attention Scope (2407.15176v3)
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+ - Recursive Language Models: Infinite Context that works (2512.24601) β€” MIT CSAIL
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+ - Recursive Agent Harnesses (2606.13643v1) β€” PwC
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+ - Needle 2: 45M-parameter model, 14MB binary, 28MB RAM (Cactus-Compute/needle2)
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+ - BitNet: Scaling 1-bit Transformers (Microsoft) β€” https://github.com/microsoft/BitNet β€” MIT License
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+ - Ternary Bonsai: Top Intelligence at 1.58 Bits (PrismML) β€” https://prismml.com/news/ternary-bonsai β€” Apache 2.0
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+ - TurboVec: Vector index built on TurboQuant (RyanCodrai/turbovec) — 31GB→4GB, data-oblivious
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+ - TurboQuant: Online Vector Quantization with Near-optimal Distortion Rate (ICLR 2026)
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+ - T-MAC: CPU Renaissance via Table Lookup for Low-Bit LLM Deployment on Edge (2407.00088) β€” MIT
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+ - Vec-LUT: Vector Table Lookup for Parallel Ultra-Low-Bit LLM Inference on Edge (2512.06443)
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+ - Axon DSL: Write Once, Run Everywhere (2608.19889v1) β€” shape-safe, framework-agnostic
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+ - MatMul-free LM: Scalable MatMul-free Language Modeling (2406.02528) β€” UC Santa Cruz, 2.7B, FPGA 13W, Loihi 2 4.2W
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+ - Mamba: Linear-Time Sequence Modeling with Selective State Spaces β€” https://arxiv.org/abs/2312.00752
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+ - Liquid Neural Networks: MIT CSAIL β€” https://www.liquid.ai
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+
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+ ## License
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+ Apache 2.0 β€” for OICIO code (following Bonsai and Needle2). Model weights follow base model licenses (BitNet MIT, Bonsai Apache 2.0) allowing rebrand.
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+ ---
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+ **Built in limited environment 1.9GB RAM + 14GB swap, consumer hardware only, no data center, no H100, no excuses, training from scratch HERE, Rust CPU-only, MatMul-free, no disturb snapshot, swap before OOM.**
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+ **OICIO = Outside-In Contextual Intelligence Orchestration, MatMul-Free CPU-Only, Intelligence Density > Parameter Count.**