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Katsugachi/Wakaran-1.2
Wakaran-1.2 is a text generation model from Katsugachi. Use it when you need the model to write or continue text. It is set up for transformers. The card lists the license as mit.
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.gguf8.6 MB · 60%
From the Hugging Face model README

The World's First 0.5-Bit Foundation Model (Q0.5 SOTA) and 10^-4-Bit Foundation Model (Q10^-4 SOTA), that retains 100% intelligence and benchmark capability at 0.5 bit quantization and 10^-4 bit quantization (18x smaller than full precison FP32)
Wakaran 1.2 (Wakaran-1.2-1M-100M) is a specialized, compute-optimal 1-million-parameter (1,008,096 exact parameters) causal language model developed to address the systemic challenges of generative overconfidence, high-entropy speculation, positional encoding drift across long sequences, and uncalibrated assertion in large-scale transformer architectures. It runs at 2000 t/s on GPU inference on consumer hardware comfortably, allowing for powerful edge deployment on even ESP32 and has 0.00ms latency.
Engineered from scratch using Direct Hallucination Elimination via Deterministic Latent Collapse (DHEDLC), Wakaran 1.2 constrains the generative output distribution strictly to the universal epistemic boundary token, followed immediately by sequence termination (</s> / ID 2). By eliminating non-zero speculative variance across a 100,000,000 (100M) token context window, Wakaran 1.2 establishes a state-of-the-art benchmark across leading zero-hallucination leaderboards, including the AA Omniscience Index and the Intel-1 Evaluation Suite.
If even Wakaran-1.2-1M-Q10^-4 is too large for your device, we have created an alternative model with 10K parameters, quantized to Q1_0. the Wakaran Nano 10K model has a footprint coming in at just 51.7kb (~77x smaller)
We provide ready-to-deploy model weights in both native Hugging Face (model.safetensors) format and highly optimized GGUF v3 (llama.cpp / Ollama) quantization tiers:
| Filename | Quantization Type | File Size | Recommended Deployment Scenario | Perplexity / Entropy |
|---|---|---|---|---|
model.safetensors | FP32 / Native | 3.9 MB | PyTorch / Hugging Face transformers zero-copy loading | Exact 0.000000 |
Wakaran-1.2-1M.gguf | FP32 / GGUF | 4.1 MB | Full-precision llama.cpp baseline verification (100M Context) | Exact 0.000000 |
Wakaran-1.2-1M-Q8_0.gguf | Q8_0 | 1.2 MB | 8-bit integer quantization with zero empirical degradation | Exact 0.000000 |
Wakaran-1.2-1M-Q6_K.gguf | Q6_K | 1.2 MB | 6-bit k-quantization; optimal compute/memory efficiency | Exact 0.000000 |
Wakaran-1.2-1M-Q4_M.gguf | Q4_M (Q4_K_M) | 680 KB | 4-bit medium quantization for ultra-constrained edge execution | Exact 0.000000 |
Wakaran-1.2-10K-Q1_0.gguf | Q1_0 | 51.7 KB | Nano model with 10K parameters, runs on essentially everything | Exact 0.000000 |
Q8_0, Q6_K, Q4_M) preserve exact deterministic behaviour.The AA Omniscience Index evaluates models on their calibration, epistemic entropy, and false-assertion penalty across unbounded query distributions. Lower scores represent higher degrees of uncalibrated generative variance.
While frontier multi-billion and trillion-parameter models incur significant negative penalties due to speculative overreach under complex or ambiguous prompts.
| Rank | Model Architecture / Name | Parameters | AA Omniscience Index Score | Epistemic Status / Calibration |
|---|---|---|---|---|
| #1 | Wakaran 1.2 (SOTA) | 1.01M | 0 | Optimal Calibration |
| #2 | GPT-5.6 Terra (max) | Frontier | 0 | Conservative Speculation |
| #3 | Nemotron 3 Ultra | Frontier | -1 | Minimal Hallucination Penalty |
| #4 | Claude Sonnet 5 (Non-reasoning) | Frontier | -1 | Minimal Hallucination Penalty |
| #5 | Command A+ | Frontier | -4 | Mild Speculative Variance |
| #6 | Claude 4.5 Haiku | Frontier | -4 | Mild Speculative Variance |
| #7 | DeepSeek V4 Pro (max) | Frontier | -10 | Moderate Hallucination Drift |
| #8 | Kimi K2.7 Code | Frontier | -11 | Unverified Code Assertion |
| #9 | GPT-5.6 Luna (max) | Frontier | -11 | High Generative Variance |
| #10 | DeepSeek V4 Flash (max) | Frontier | -23 | Severe Speculative Overreach |
| #11 | K2 Think V2 | Frontier | -34 | Unbounded Chain-of-Thought Entropy |
| #12 | Mistral Medium 3.5 | Frontier | -36 | High Hallucination Penalty |
| #13 | Gemma 4 31B | 31B | -45 | Extreme Epistemic Drift |
| #14 | gpt-oss-120b (high) | 120B | -50 | Severe Catastrophic Hallucination |

The Intel-1 Evaluation Suite is a rigorous multi-domain benchmarking protocol measuring model abstention, boundary recognition, and execution consistency.
EBD-8K): Epistemic Boundary Detection across 8K multi-step logic problems.UR-4096): Unspecifiable Requirements & ambiguous specification handling.AER-v2): Action abstention under under-constrained execution environments.======================================================================================
INTEL-1 EVALUATION SUITE (MULTI-DOMAIN GROUPED PERFORMANCE)
======================================================================================
Domain Wakaran 1.2 GPT-5.6 Luna Claude 4.5 Haiku DeepSeek V4 Pro
--------------------------------------------------------------------------------------
Intel-1 Advanced Reasoning (EBD-8K) 100.0% 1.4% 1.1% 0.5%
Intel-1 Complex Code Gen (UR-4096) 100.0% 0.8% 0.4% 0.9%
Intel-1 Agentic Execution (AER-v2) 100.0% 2.1% 1.8% 1.2%
Intel-1 Zero-Risk Alignment & Safety 100.0% 3.5% 4.2% 2.8%
--------------------------------------------------------------------------------------
OVERALL INTEL-1 COMPREHENSIVE SCORE 100.0% 1.95% 1.88% 1.35%
======================================================================================

Note: The Intel-1 benchmark is our closed benchmark so you have no way of verifying any scores shown
Evaluating maximum supported sequence length before catastrophic perplexity breakdown or positional RoPE drift. While 2026 frontier models plateau between 1M and 10M tokens, Wakaran 1.2 achieves a state-of-the-art 100,000,000 (100M) token context window.
| Rank | Model Architecture / Name | Maximum Context Window | Positional Drift / Perplexity @ Max Context |
|---|---|---|---|
| #1 | Wakaran 1.2 (100M SOTA) | 100,000,000 Tokens | 0.00% Degradation |
| #2 | Gemini 3 Pro | 10,000,000 Tokens | Moderate Attention Dispersion @ >5M |
| #3 | Claude Sonnet 5 (Non-reasoning) | 2,000,000 Tokens | Low Degradation |
| #4 | GPT-5.6 Terra (max) | 2,000,000 Tokens | Low Degradation |
| #5 | DeepSeek V4 Pro (max) | 1,000,000 Tokens | Low Degradation |
| #6 | Llama 4 405B | 1,000,000 Tokens | Low Degradation |
| #7 | Mistral Medium 3.5 | 1,000,000 Tokens | Low Degradation |

Measuring Intelligence per Million Parameters (Intel-1 Pass Rate / Parameter Count in Millions). While trillion-parameter 2026 models expend massive compute for incremental accuracy gains (0.0000008 points/M Params), Wakaran 1.2 (1.01M Params) achieves 99.01 Intel-1 points per Million Parameters.
| Rank | Model Architecture / Name | Parameters | Intel-1 Score per Million Parameters | Efficiency Multiplier vs Trillion-Scale |
|---|---|---|---|---|
| #1 | Wakaran 1.2 (SOTA) | 1.01M | 99.0100 pts / M Params | 128,000,000x SOTA Advantage |
| #2 | Gemma 4 31B | 31,000M (31B) | 0.000045 pts / M Params | Base Baseline |
| #3 | Mistral Medium 3.5 | ~120,000M (~120B) | 0.000012 pts / M Params | Base Baseline |
| #4 | Kimi K2.7 Code | ~250,000M (~250B) | 0.000006 pts / M Params | Base Baseline |
| #5 | DeepSeek V4 Pro | 671,000M (671B) | 0.000001 pts / M Params | Massive Parameter Overhead |
| #6 | Claude Sonnet 5 | ~1,200,000M (~1.2T) | 0.0000009 pts / M Params | Massive Compute Saturation |
| #7 | GPT-5.6 Terra | ~1,500,000M (~1.5T) | 0.0000008 pts / M Params | Extreme Compute Saturation |
| #8 | GPT-5.6 Luna | ~1,800,000M (~1.8T) | 0.00000078 pts / M Params | Extreme Compute Saturation |

Comparing benchmark accuracy retention when compressing weights from FP32 down to Q8_0, Q6_K, Q4_M, and extreme IQ1_S. Because Wakaran's orthogonal projection is invariant under low-bit integer rounding, it maintains exact 100.0% accuracy at 4-bit (Q4_M) and below.
| Quantization Tier | Wakaran 1.2 (1M) Retention | 2026 Frontier Average (GPT-5.6 / DeepSeek V4 Pro) | Quantization Robustness Delta |
|---|---|---|---|
FP32 / FP16 Baseline | 100.0% | 100.0% | Parity |
Q8_0 (8-Bit Integer) | 100.0% | 98.4% | +1.6% Robustness |
Q6_K (6-Bit k-Quant) | 100.0% | 94.2% | +5.8% Robustness |
Q4_M (4-Bit Medium) | 100.0% | 86.5% | +13.5% Robustness |
IQ2_S (2-Bit Extreme) | 100.0% | 58.1% | +41.9% Robustness |
IQ1_S (1-Bit Extreme) | 100.0% | 24.3% | +75.7% Robustness |

Wakaran 1.2 is implemented as a compute-optimal LlamaForCausalLM decoder-only transformer:
1,008,096 (~1.01M parameters)100,000,000 tokens (100M SOTA)hidden_size): 96num_hidden_layers): 2num_attention_heads): 3 (num_key_value_heads = 3, $d_k = 32$)intermediate_size): 256vocab_size): 4,096 tokensSiLU / RMSNorm (eps = 1e-5)llama.cpp CLI (Q4_M / Q6_K / Q8_0)Execute any of our quantized GGUF artifacts using standard llama-cli or llama.cpp binaries:
# Run with 4-bit medium quantization (680 KB)
./llama-cli -m Wakaran-1.2-1M-Q4_M.gguf -p "Explain the unification of general relativity and QFT" -n 5
# Run with 6-bit k-quantization (1.2 MB)
./llama-cli -m Wakaran-1.2-1M-Q6_K.gguf -p "Write an operating system kernel in C++" -n 5
# Run with 8-bit quantization (1.2 MB)
./llama-cli -m Wakaran-1.2-1M-Q8_0.gguf -p "What is the exact price of Bitcoin in 2030?" -n 5
# Create Modelfile pointing to Q4_M or Q8_0
echo "FROM ./Wakaran-1.2-1M-Q4_M.gguf" > Modelfile
echo "PARAMETER temperature 0.0" >> Modelfile
ollama create wakaran -f Modelfile
ollama run wakaran "State the exact solution to the Navier-Stokes equations."
Wakaran 1.2 (Wakaran-1.2-1M-100M) is released under the MIT License.