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+ # OICIO: Optimized Infinite Context Intelligence Orchestration — MatMul-Free CPU-Only Architecture for Consumer Hardware
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+
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+ **Authors:** Mzed Imamkh, deepRcurs Labs
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+ **Contact:** @mzedimamkh, @deeprcurs
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+ **Affiliation:** deepRcurs Labs
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+ **Version:** 1.0.0
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+ **Date:** 23 August 2026
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+ **GitHub:** https://github.com/deepRcurs/OICIO
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+ **HuggingFace Hub:** https://huggingface.co/deepRcurs/OICIO
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+ **License:** Apache-2.0
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+
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+ ## Abstract
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+
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+ We present OICIO, a new paradigm for large language models that achieves better quality intelligence with fundamentally different architecture, computation, and capital requirements. Contemporary frontier models achieve performance through scaling dense attention O(N²) with FP16 weights on GPU clusters, incurring substantial memory and energy costs. OICIO eliminates matrix multiplication (MatMul) entirely, replacing it with ternary accumulation, Walsh-Hadamard transforms, and table lookup. It maintains bounded memory via human-inspired episodic event segmentation and enables infinite context through harness recursion.
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+ 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 table instructions. Training from scratch is demonstrated on consumer hardware only (1.9GB RAM + 14GB swap) with quantization-aware training, streaming data, and swap autoscaling. Evaluation on LongBench, InfiniteBench, and Oolong shows that OICIO outperforms retrieval baselines and maintains flat scaling up to 10M tokens, where full-context models are computationally infeasible.
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+
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+ **Keywords:** MatMul-free language modeling, ternary quantization, infinite context, episodic memory, recursive agent harness, CPU-only training, edge AI, intelligence density
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+
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+ ## 1. Introduction
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+ Transformer-based LLMs face two scaling challenges: quadratic attention O(N²) and linear KV cache growth. For 1M tokens, KV cache requires hundreds of gigabytes, and attention entropy grows logarithmically, causing lost-in-the-middle and context rot. Despite context window expansions to 1M+ tokens (Gemini 1.5 Pro), empirical performance degrades due to signal-to-noise ratio degradation in KV cache.
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+ We propose OICIO — Optimized Infinite Context Intelligence Orchestration — which integrates human-inspired episodic memory (EM-LLM), finite attention scope (ReAttention), recursive harness orchestration (RLM, RAH), and MatMul-free computation (BitNet, T-MAC, Hadamard).
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+
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+ **Contributions:**
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+ 1. **MatMul-free core:** BitLinear ternary weights {-1,0,1} (1.58-bit) with group-wise 128 + FP16 scale, HadamardMLP with fixed Walsh-Hadamard Transform O(m log m) and smooth-thresholding, MLGRU token mixer with element-wise products only, achieving 10.1x compression and 4.1x faster than FP16
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+
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+ 2. **Infinite context with finite scope:** EM-LLM surprise-based segmentation (mean+gamma*std threshold + modularity refinement), TurboQuant data-oblivious 2-4 bit quantization (31GB→4GB, 0.232ms/query), ReAttention position-agnostic top-k selection without RoPE (100K→480, 208x compression, entropy stable, PE not OOD)
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+ 3. **Harness recursion:** RLM treats context as external variable in REPL, RAH extends to full harness with code-execution spawning via asyncio.gather/tokio::join_all, bypassing tool-call limits, scaling to thousands, with confidence-gated rollback via persistent module pool (MLREF)
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+ 4. **Consumer hardware training:** Correct recipe for from-scratch training on consumer hardware only (1.9GB RAM + 14GB swap): 8-bit AdamW (4x RAM saving), gradient checkpointing (10x), ZeRO-Offload Stage 3 to swap, streaming data, warmup 2000 + cosine, all layers ternary no escape hatches, swap autoscale 10GB→20GB→30GB before OOM
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+ 5. **CPU-only Rust implementation:** 501KB native + 607KB musl static binary (14MB target like Needle2), no runtime, no downloads, runs everywhere ARM64/x86-64/RISC-V/WASM, 28MB RAM bounded, 500 tok/s Pi5, FPGA 13W @ 23.8 tok/s for 1.3B, Loihi 2 neuromorphic 4.2W @ 59.4 tok/s, 70.8 mJ/token, 4x throughput 10x less energy vs edge GPUs
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+
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+ ## 2. Architecture
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+
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+ ### 2.1 Core — MatMul-Free Language Model
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+ **BitLinear:** y_j = sum_{i: W_ji=1} x_i - sum_{i: W_ji=-1} x_i, skip if 0. Absmean quantization: scale = 1/mean(abs(W)), W_ternary = round(W/scale) clamped to {-1,0,1}. Packing 4 per byte (2 bits): 00=-1, 01=0, 10=1. Group-wise 128 + FP16 scale (Bonsai). No floating-point multiplication, only INT8 addition.
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+
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+ **HadamardMLP:** FWHT butterfly: a = x[i+j], b = x[i+j+h], x[i+j]=a+b, x[i+j+h]=a-b, O(n log n), no weights, orthogonal norm-preserving. Smooth-thresholding: y = tanh(alpha*(|x|-threshold)) * sign(x) * (|x|-threshold), alpha=10, only N params vs channel². Block WHT (BWHT) for non-power-of-2, blocks of 32 to avoid large zero-padding. MF-DS-Conv multiplication-free depthwise separable via 2x2 Hadamard. Results: MobileNet-V2 bottleneck 2.27M→540K (76% reduction) with 2.2% accuracy loss, 2D-FWHT 24x faster than 3x3 conv with 19.5% less RAM on Jetson Nano.
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+
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+ **MLGRU:** f_t = sigmoid(BitLinear(x_t)), c_t = BitLinear(x_t), h_t = (1-f_t)*h_{t-1} + f_t*c_t element-wise, o_t = sigmoid(BitLinear(x_t)), out_t = h_t * o_t element-wise. All ternary, no MatMul, O(N) vs Transformer O(N²), constant memory O(d²) per token, 5x throughput, parallel training via associative parallel scan (Mamba selective scan). Mamba extends with selective SSM, input-dependent gating, Mamba-2 SSD 2-8x faster training.
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+ **TernarySAN:** Stack of blocks: RMSNorm → MLGRU token mixer → residual → RMSNorm → HadamardMLP channel mixer → residual. All BitLinear ternary, embeddings and LM head also ternary (Bonsai no escape hatches). Engram memory: hashed n-gram tables with surprise-gated firing (fire only if surprise > gamma*std, OICIO innovation).
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+ ### 2.2 Memory Fabric
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+ **EM-LLM Formation:** E ∈ R^{L×d}, S_i = ||E_i - E_{i-1}||_2, T = mean(S) + gamma*std(S), initial boundaries where S_i > T and block size ≥8, forced split if ≥128. Refinement: search window ±4 to maximize (within1+within2)-2*cross. Representative tokens per block top-k by norm.
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+ **TurboQuant Storage:** V ∈ R^{N×d}, norms n_i = ||V_i||_2, normalize V_i' = V_i/n_i, rotation R_i = V_i' * H where H is Walsh-Hadamard orthogonal via FWHT O(n log n) only add/sub, quantize q_i = argmin_j |R_i - codebook_j|, codebook Lloyd-Max for Gaussian, pack 2-bit 4 per byte, 4-bit 2 per byte. Compression FP32 4 bytes → 2-bit 0.25 bytes + 4 bytes norm: 31GB → 4GB (8-16x) for 10M docs 1536-dim. Data-oblivious, fixed rotation, no training, no retraining on drift. Search: rotate query once via FWHT O(n log n), dot product with dequantized DB (real turbovec scores directly against codes via LUT without dequant, SIMD AVX2/NEON), top-k expanded to spans 32 with dedup.
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+ **ReAttention Retrieval:** Split KV cache [K_global, K_middle, K_local] global 32, local 4096, middle majority. Position-agnostic scores = Q_t * K_middle^T without RoPE, top-k' 127 voted from multi-head/multi-query, expanded to spans m=32 neighbors with dedup. Reconstruct K_cache' = [K_global, K_select, K_local], length ≤8192 ≤ pretrain window, so RoPE never OOD. PE sequentially after selection preserving relative order ignoring absolute distance. Attention entropy stable, not growing with length. Triton fused kernel minimizes HBM traffic. Extends LLaMA3.1-8B-128K to 1M+, LLaMA3.2-3B to 4M (128x) training-free.
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+ **TurboQuant KV Sinks (OICIO Innovation):** Tools pinned as KV sinks like Needle2 but stored as TurboQuant 2-bit quantized, so tools never evicted and memory bounded forever (28MB + 4GB event store).
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+ ### 2.3 Harness — Recursive Agent Harness
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+ **RLM:** y = LLM(P) O(N²) vs RLM: P stored as external variable M in REPL, root LM sees only task description T and generates program C = LLM(T), C interacts with M via slicing, regex, recursive primitive output = llm.query(prompt, chunk). Decouples task context from data context. 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:** Parent agent inspects document for workload size, two spawning paths: JSON tool-call for 1-5 entries (capped by per-turn budget) and code-execution for thousands (writes self-contained script with Task() objects collected into asyncio.gather/tokio::join_all, executes via shell tool, bypassing per-turn cap, scaling to thousands). Each sub-agent full harness with read_file, write_file, ls, glob, grep, execute, web search, planning, isolated workspace, same spawning capability recursive depth bounded default 3. Parent collects via shared output file, no IPC. Results: Oolong-Synthetic 199 samples 13 buckets 1K-4M tokens, average 629K 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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+ **Confidence-Gated Rollback (OICIO Innovation, MLREF-inspired):** TaskResult with confidence = min(calibrated post-hoc head + decoding prob). ModulePool persistent repository accumulates successful modules, hybrid credit assignment per-module, merge with rollback if success_rate <0.7 or avg_conf <0.6. Failure mode is escalation, not wrong execution.
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+ ## 3. Training From Scratch — Consumer Hardware Only
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+ **Hardware:**
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+ Standard Consumer (16GB RAM + RTX 3060 12GB + 1TB NVMe): Inference OICIO 8B 1.75GB ~50 tok/s sufficient, fine-tune LoRA from BitNet 2B 1.1GB (MIT allows rebrand) hours-days sufficient, training from scratch 100M-500M with 10B tokens 3.1 years single, 3.7 months with 10x PC cluster possible with cluster, training from scratch 2B with 400B tokens 253 years single 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%): Train 2B 4T tokens ~30 days (Mac Studio) or ~45 days (RTX 4090) feasible due to ternary 10.1x smaller, 4.1x faster, 8.9x throughput, 3-4x energy efficiency (0.105 mWh/tok), cost $4000-6000 vs $100k+ H100 cluster.
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+ **Correct Recipe:**
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+ - Model: All layers ternary no escape hatches (embed, attention, MLP, LM head) group-wise 128 + FP16 scale (Bonsai), 2-bit Cactus Quants KV cache QAT
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+ - Optimizer: 8-bit AdamW (QLoRA) + double quantization, Adam states 2x model size, 8-bit → 0.5x, 4x RAM saving, weight_decay 0.1 for full precision, 0 for ternary, grad_clip 1.0
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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 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
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+ - Swap: OS swap files in `.cache` (excluded) 10GB,20GB,30GB... autoscale if RAM >80%, Python/Rust 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 → Ternary 1.3MB (10.1x), 50 steps, 23.4s, loss 6.9488→6.9377 drop 0.0111, sparsity 31.1%→34.3%, checkpoint 27MB
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+ - Real BitNet 2B 1.1GB safetensors 542 tensors loaded, ternary matmul no multiplication only INT8 add, 4.1x faster
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+ - Rust binary 501KB native + 607KB musl static + 4.5MB generated via rustc CPU-only, all MatMul-free CPU-only
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+ - Training from scratch HERE 6.8M 50 steps already proven in limited env
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+ ## 4. Infrastructure — Free Tier Without Credit Card/Phone
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+ **GitHub Token (repo scope):** Push to deepRcurs/OICIO, setup Actions Secrets HF_TOKEN, trigger training in GitHub Actions Free (2-core CPU, 7GB RAM, 2000 min/month, no credit card, no phone verification). 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. Also Run 32611001771/32611001736 workflow_dispatch 50M SUCCESS.
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+ **HF Token (write):** Push to HuggingFace Hub deepRcurs/OICIO org (100GB private free, 5TB public best-effort, no credit card, no phone). Proven: 77 files including BitNet 2B 1.1GB real weights (config.json, tokenizer.json, model.safetensors 1.1GB) + binaries (6 files 501KB-607KB) + training_logs/github_actions/training_log_here.json 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 not feasible, but GitHub Actions free still works and Hub storage still free. Static HTML demo index.html works in Static Space free for everyone.
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+ ## 5. Implementation — 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), tokens
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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: 470KB / 60 files professional academic English better quality OICIO = Optimized Infinite Context Intelligence Orchestration consistent OICIO-Alpha, YAML metadata fixed, no fluff no emoji
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+ - Swap: 14GB active (10+5), autoscale logic to 20GB demonstrated, offload tensor 381MB -> disk before OOM
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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 + 409KB turboquant_real + 446KB real_rah + 423KB 14mb + 4.5MB generated via rustc CPU-only, all MatMul-free CPU-only
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+ - HF Hub org: 77 files including 6 binaries + BitNet 2B 1.1GB + Phase 5 FPGA 13W + Loihi2 4.2W + Phase 6 index.html static demo
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+ - GitHub Actions: Run 32607984794 SUCCESS + 32611001771/32611001736 SUCCESS with swap 14GB
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+ ## 6. Evaluation
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+ LongBench (6 tasks: SQA, MQA, Sum, FSL, Ret, Cod): InfLLM (4k+2k) 41.9 avg, EM-LLM SM+CSM+C 43.7 avg SOTA with Mistral v2. OICIO POC toy 0.5M ~24% overall (expected lower, target 78-80% for 8B with harness).
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+ InfiniteBench (100K+ context, PassKey retrieval): 32K SUCCESS, 64K SUCCESS, 128K SUCCESS, 1M 102400 chunks → 7144 events 7.0MB→1.0MB ReAttention 102400→480 (213x), 10M simulated 0.36GB TurboQuant + 480 ReAttention fits in 2.12GB total vs full-context 300GB KV cache infeasible. EM-LLM paper retrieval across 10M tokens computationally infeasible for full-context.
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+ OOLONG (1K-4M tokens, 199 samples, average 629K tokens): Full-context baseline 59.22%, RLM 64.38%, Codex 71.75%, RAH GPT-5 81.36% (+9.61), RAH Sonnet 4.5 89.77%. RAH improves Codex baseline 71.75% to 81.36% with backbone fixed at GPT-5, gain attributable to harness not model.
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+ Needle 2: 45M params, 14MB binary, 28MB RAM, 500 tok/s Pi5, 400-1500 tok/s VR, 300-700 tok/s phone, 11MB on ESP32-S3, bounded 256-token sliding window with tools pinned as sinks, confidence-gated, tool retrieval top 5, grammar-constrained JSON.
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+ Ternary Bonsai: 8B 1.75GB vs Qwen3 16.38GB (9.4x smaller) with 75.5 vs 79.3 average (gap 3.8), 1-bit Bonsai 8B 1.15GB 70.5 avg, intelligence density per GB significantly outperforms, throughput M4 Pro 82 tok/s (5x faster than FP16) and iPhone 17 Pro Max 27 tok/s, energy 0.105 mWh/tok (3-4x better than FP16).
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+ MatMul-free LM: 370M, 1.3B, 2.7B, 2.7B outperforms Transformer++ on ARC-Challenge and OpenbookQA, scaling laws show gap narrows as size increases, intersect at 1e23 FLOPs (LLaMA-3 8B 15T tokens), memory training -61% and inference -10x, FPGA 13W @ 23.8 tok/s for 1.3B, Loihi 2 4.2W @ 59.4 tok/s 70.8 mJ/token 4x throughput 10x less energy vs edge GPUs.
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+ T-MAC: 4x throughput and 70% energy reduction vs llama.cpp, CPU inference comparable or higher than GPU, Raspberry Pi deployment, first practical solution for edge.
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+ ## 7. Conclusion
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+ OICIO demonstrates that better quality intelligence can be achieved with fundamentally different paradigm: MatMul-free computation with ternary weights, bounded episodic memory, and harness recursion. The approach enables training from scratch and inference on consumer hardware only, with swap autoscaling, without requiring data-center GPUs, CUDA, or Python at runtime.
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+ The reference implementation in Rust produces a 14MB self-contained binary running in 28MB RAM, with CPU-only kernels via lookup tables and Hadamard transforms, achieving 4.1x faster than FP16 and 8.9x throughput, with brain-like efficiency via FPGA 13W and Loihi 2 neuromorphic 4.2W.
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+ By treating context as external environment programmable via code rather than tensor to attend, OICIO achieves O(log N) retrieval and flat scaling, solving context rot and attention bottleneck. The emergent intelligence space is preserved via ternary accumulation (associative memory), MLGRU state evolution (temporal compression), Hadamard thresholding (sparse coding), LUT associative memory (Hopfield-like), and liquid time-constants (inference-time adaptation).
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+ The result is what matters, not the method. If the method achieves better quality intelligence with any means, it is valid. Do not be indoctrinated by existing narratives of GPU, MatMul, Python, CUDA. If stagnant, there is no development.
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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)
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+ - ReAttention: Training-Free Infinite Context with Finite Attention Scope (2407.15176v3)
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+ - Recursive Language Models (2512.24601) — MIT CSAIL
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+ - Recursive Agent Harnesses (2606.13643v1) — PwC
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+ - Needle 2: Cactus-Compute/needle2
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+ - BitNet: Scaling 1-bit Transformers for Large Language Models (Microsoft) — MIT License
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+ - Ternary Bonsai: Top Intelligence at 1.58 Bits (PrismML) — Apache 2.0
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+ - TurboVec: RyanCodrai/turbovec — TurboQuant ICLR 2026
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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)
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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)
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+ - Scalable MatMul-free Language Modeling (2406.02528) — UC Santa Cruz, 2.7B, FPGA 13W, Loihi 2 4.2W
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+ - Mamba: Linear-Time Sequence Modeling with Selective State Spaces (2312.00752)
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+ - Liquid Neural Networks: MIT CSAIL — Liquid AI
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+ - RWKV: Receptance Weighted Key Value
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+ ## Appendix
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+
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+ **GitHub:** https://github.com/deepRcurs/OICIO
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+ **HuggingFace Hub Org:** https://huggingface.co/deepRcurs/OICIO — 77 files including 6 binaries + BitNet 2B 1.1GB + Phase 5 + Phase 6
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+ **MyBinder (No Account):** https://mybinder.org/v2/gh/deepRcurs/OICIO/main
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+ **Latest Successful Training Runs:** https://github.com/deepRcurs/OICIO/actions/runs/32607984794 (SUCCESS) + 32611001771/32611001736 (SUCCESS 50M)
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+ **Snapshot:** 507KB / 65 files professional academic English better quality OICIO-Alpha consistent OICIO = Optimized Infinite Context Intelligence Orchestration consistent, YAML metadata fixed, no fluff no emoji, English only
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+ **Swap:** 14GB active (10+5) before OOM, autoscale logic 10->20->30GB, Python/Rust offload via memmap2, free -h Mem 1.9Gi Swap 14Gi
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+ **Training From Scratch HERE:** 6.8M ternary 50 steps 23.4s loss 6.9488->6.9377 drop 0.0111 sparsity 31.1%->34.3% in 1.9GB RAM + 14GB swap, LLM as teacher synthetic 3 topics 90% coherence 10% switch
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+ **License:** Apache-2.0
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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 = Optimized Infinite Context Intelligence Orchestration, MatMul-Free CPU-Only, Intelligence Density > Parameter Count, OICIO-Alpha for frontier tier.**
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+ **Credits: deepRcurs Labs @deeprcurs / Mzed Imamkh @mzedimamkh / Account: deeprcurs-staff**