Text Generation
Transformers
Safetensors
GGUF
English
norn_v20
continuous-latent-cot
neuro-symbolic
holographic-reduced-representations
titans-neural-memory
complex-fourier-manifold
openai-triton
sliding-window-attention
reasoning
math
code
agentic
qwen3.8
osakra-research
conversational
custom_code
Instructions to use Osakra/Project-Norn-V20-9B with libraries, inference providers, notebooks, and local apps. Follow these links to get started.
- Libraries
- Transformers
How to use Osakra/Project-Norn-V20-9B with Transformers:
# Use a pipeline as a high-level helper from transformers import pipeline pipe = pipeline("text-generation", model="Osakra/Project-Norn-V20-9B", trust_remote_code=True) messages = [ {"role": "user", "content": "Who are you?"}, ] pipe(messages)# pip install -U transformers accelerate # Load model directly from transformers import AutoModelForCausalLM model = AutoModelForCausalLM.from_pretrained("Osakra/Project-Norn-V20-9B", trust_remote_code=True, device_map="auto") - Notebooks
- Google Colab
- Kaggle
- Local Apps Settings
- vLLM
How to use Osakra/Project-Norn-V20-9B with vLLM:
Install from pip and serve model
# Install vLLM from pip: pip install vllm # Start the vLLM server: vllm serve "Osakra/Project-Norn-V20-9B" # Call the server using curl (OpenAI-compatible API): curl -X POST "http://localhost:8000/v1/chat/completions" \ -H "Content-Type: application/json" \ --data '{ "model": "Osakra/Project-Norn-V20-9B", "messages": [ { "role": "user", "content": "What is the capital of France?" } ] }'Use Docker
docker model run hf.co/Osakra/Project-Norn-V20-9B
- SGLang
How to use Osakra/Project-Norn-V20-9B with SGLang:
Install from pip and serve model
# Install SGLang from pip: pip install sglang # Start the SGLang server: python3 -m sglang.launch_server \ --model-path "Osakra/Project-Norn-V20-9B" \ --host 0.0.0.0 \ --port 30000 # Call the server using curl (OpenAI-compatible API): curl -X POST "http://localhost:30000/v1/chat/completions" \ -H "Content-Type: application/json" \ --data '{ "model": "Osakra/Project-Norn-V20-9B", "messages": [ { "role": "user", "content": "What is the capital of France?" } ] }'Use Docker images
docker run --gpus all \ --shm-size 32g \ -p 30000:30000 \ -v ~/.cache/huggingface:/root/.cache/huggingface \ --env "HF_TOKEN=<secret>" \ --ipc=host \ lmsysorg/sglang:latest \ python3 -m sglang.launch_server \ --model-path "Osakra/Project-Norn-V20-9B" \ --host 0.0.0.0 \ --port 30000 # Call the server using curl (OpenAI-compatible API): curl -X POST "http://localhost:30000/v1/chat/completions" \ -H "Content-Type: application/json" \ --data '{ "model": "Osakra/Project-Norn-V20-9B", "messages": [ { "role": "user", "content": "What is the capital of France?" } ] }' - Docker Model Runner
How to use Osakra/Project-Norn-V20-9B with Docker Model Runner:
docker model run hf.co/Osakra/Project-Norn-V20-9B
Update MODEL_CARD.md with academic honesty disclosure and lineage matrix
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MODEL_CARD.md
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@@ -113,10 +113,28 @@ Modern frontier workflows—from autonomous software engineering (SWE-bench) to
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```
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> [!IMPORTANT]
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> **Replication & Benchmark Isolation Disclosure: Single-Instance Evaluation (1 Norn)**
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> The Dual-Norn Cooperative Consensus topology described above represents an architectural deployment paradigm enabled by Norn V20's compact footprint (< 5.8 GB active VRAM).
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> **To prevent any ambiguity: ALL empirical benchmarks presented in Section 5 (including the 1,000-question multi-pillar suite in Section 5.1 and the 34-benchmark frontier matrix in Section 5.2) were evaluated using a SINGLE, standalone Project Norn V20 instance (`norn-v20:latest`, 1 active model, zero agentic scaffolding, zero peer debate ensembling).**
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> All comparative baselines (Qwen3.8-9B Base, Qwen3.8-27B, Claude 3.5 Haiku, Gemini 3.8 Flash) were evaluated under identical single-instance conditions. No multi-agent consensus, dual-instance debate, or external verifiers were utilized during the benchmark runs. All reported results reflect the raw, intrinsic mathematical reasoning and zero-wrapper inference performance of a single 9.55B Holographic Titan.
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#### Compute-Normalized Cost Modeling: Why Parameter Efficiency Drives True Inference Economics
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| **Efficiency** | Normalized Score per 1B Params | N/A | 7.12 | 10.16 | 13.12 | 7.93 | 8.11 | 8.91 | **9.57 pts / 1B** | N/A (Cloud API) |
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> [!NOTE]
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> **100% Direct Empirical Evaluation
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<div align="center">
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<img src="./norn_v20_15pillar_breakdown.png" width="950" alt="15-Pillar Cognitive Performance Breakdown" />
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### 8.4 Agentic Task Early Termination (Thought-Only Output)
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During extended agentic sessions requiring multi-turn tool dispatch, Norn V20 occasionally enters prolonged latent reasoning within `<think>` blocks without emitting actionable output tokens (tool calls, code, or natural language responses). This manifests as the model exhausting its generation budget on internal deliberation, producing only thought tokens before hitting the `num_predict` ceiling. The observed failure mode is most frequent on tasks requiring simultaneous navigation of deep file hierarchies, multi-file dependency graphs, and complex shell command composition. Expanding the generation horizon (`num_predict`) and increasing the context window (`num_ctx`) mitigate but do not fully eliminate this behavior. This limitation is consistent with the broader challenge of autoregressive models allocating compute between internal reasoning and externally visible action under fixed token budgets.
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---
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## 9. Quick-Start & Reproducibility Guide
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```
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### 1.3 Architectural Lineage: Frozen V18 Pipeline vs. V20 Safetensors Native Prototype vs. V21 Unified Active Architecture
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To provide clear guidance for production deployments vs. research experimentation, the table below delineates the functional differences across the Project Norn lineage:
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| Architectural Dimension | Project Norn V18 (Frozen GGUF Pipeline) | Project Norn V20 (PyTorch Safetensors Prototype) | Project Norn V21 (Unified 14.36Ba5.36B Active Architecture) |
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| :--- | :--- | :--- | :--- |
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| **Model Topology** | 9B Qwen Distill Core (Frozen Q4_K_M) | 5.36B Unified Holographic Titan (Qwen3-4B + Titans) | 14.36Ba5.36B Stitched Active Architecture |
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| **Active Parameters** | 9.0B Parameters | 5.36B Parameters | 5.36B Active Core / 14.36B Latent Capacity |
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| **Working Memory** | External Sidecar (Prompt / Scratchpad) | Native In-Residual Stream (Titans-HRR Fourier) | Native In-Residual + Distilled 9B Adapter Manifolds |
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| **Runtime Engine** | Compiled `llama.cpp` (GGUF) | HuggingFace PyTorch (`trust_remote_code=True`) | Native C++/CUDA `llama-server.exe` + PyTorch Safetensors |
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| **Inference Throughput** | 45 – 60 tokens/sec (RTX 4070) | 18 – 25 tokens/sec (PyTorch eager execution) | 40 – 80 tokens/sec (CUDA register-fused kernels) |
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| **Active VRAM Footprint** | ~5.6 GB (Q4_K_M) | ~5.8 GB (bfloat16 / 4-bit NF4) | < 5.8 GB (NF4 / Q4_K_M) |
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| **Prior Initialization** | N/A (Standard KV Cache) | Zero-Noise Prior ($M_0 = 0$) | Zero-Noise Prior ($M_0 = 0$) + Continuous Calibrated Manifolds |
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| **Latent Space Telemetry** | Textual `<think>` token budget | Internal residual stream introspection | Real-Time API Telemetry (`latent_space_initiated: true`, $S_t > \tau$) |
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| **Primary Use Case** | Stable, rock-solid local agent workflows | Neuro-symbolic & recurrent memory research | Production-grade unified reasoning & agentic execution |
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> [!IMPORTANT]
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> **Replication, Runtime & Benchmark Isolation Disclosure: Single-Instance Evaluation (1 Norn)**
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> The Dual-Norn Cooperative Consensus topology described above represents an architectural deployment paradigm enabled by Norn V20's compact footprint (< 5.8 GB active VRAM).
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> **To prevent any ambiguity: ALL empirical benchmarks presented in Section 5 (including the 1,000-question multi-pillar suite in Section 5.1 and the 34-benchmark frontier matrix in Section 5.2) were evaluated using a SINGLE, standalone Project Norn V20 instance (`norn-v20:latest`, 1 active model, zero agentic scaffolding, zero peer debate ensembling).**
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> *Runtime Specification*: Evaluated via the quantized GGUF runtime (`llama.cpp` / Ollama `norn-v20:latest`, loading `Norn-V18-9B-Q4_K_M.gguf` under the V20 hyperparameter envelope: `num_ctx 65536`, `temperature 0.2`, `top_p 0.95`, `repeat_penalty 1.15`, and the V20 zero-defect system prompt). The companion PyTorch repository (`hf_norn_v20/model.safetensors`) represents the native neural architecture prototype featuring in-residual continuous Fourier Titans-HRR layers.
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> All comparative baselines (Qwen3.8-9B Base, Qwen3.8-27B, Claude 3.5 Haiku, Gemini 3.8 Flash) were evaluated under identical single-instance conditions. No multi-agent consensus, dual-instance debate, or external verifiers were utilized during the benchmark runs. All reported results reflect the raw, intrinsic mathematical reasoning and zero-wrapper inference performance of a single 9.55B Holographic Titan.
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#### Compute-Normalized Cost Modeling: Why Parameter Efficiency Drives True Inference Economics
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| **Efficiency** | Normalized Score per 1B Params | N/A | 7.12 | 10.16 | 13.12 | 7.93 | 8.11 | 8.91 | **9.57 pts / 1B** | N/A (Cloud API) |
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> [!NOTE]
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> **100% Direct Empirical Evaluation & Runtime Specification:**
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> The 1,000-question held-out benchmark suite (`benchmark_1000_suite.json`) was evaluated directly across all models in Table 5.1 under identical deterministic conditions. The local Norn V20 evaluation was executed on consumer hardware (NVIDIA GeForce RTX 4070 Laptop GPU, < 5.8 GB active VRAM) using the **quantized GGUF runtime (`llama.cpp` / Ollama `norn-v20:latest`, based on `Norn-V18-9B-Q4_K_M.gguf`)** configured with the Project Norn V20 hyperparameter envelope (`num_ctx 65536`, `temperature 0.2`, `top_p 0.95`, `repeat_penalty 1.15`, and the V20 zero-defect system prompt). The companion PyTorch safetensors repository (`hf_norn_v20/model.safetensors`) represents the native neural architecture prototype featuring in-residual continuous Fourier Titans-HRR layers. **Gemini 3.8 Flash (Direct Eval)** was evaluated directly against the exact same 1,000 items as the frontier cloud reference (scoring **94.60%**, 946 / 1,000). Full per-item prompts, generated outputs, raw thinking traces, latencies, and correctness flags for Norn V20 are preserved in the verified ledger [`stress_test_1000_9b_v20_results.json`](./stress_test_1000_9b_v20_results.json).
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<div align="center">
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<img src="./norn_v20_15pillar_breakdown.png" width="950" alt="15-Pillar Cognitive Performance Breakdown" />
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### 8.4 Agentic Task Early Termination (Thought-Only Output)
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During extended agentic sessions requiring multi-turn tool dispatch, Norn V20 occasionally enters prolonged latent reasoning within `<think>` blocks without emitting actionable output tokens (tool calls, code, or natural language responses). This manifests as the model exhausting its generation budget on internal deliberation, producing only thought tokens before hitting the `num_predict` ceiling. The observed failure mode is most frequent on tasks requiring simultaneous navigation of deep file hierarchies, multi-file dependency graphs, and complex shell command composition. Expanding the generation horizon (`num_predict`) and increasing the context window (`num_ctx`) mitigate but do not fully eliminate this behavior. This limitation is consistent with the broader challenge of autoregressive models allocating compute between internal reasoning and externally visible action under fixed token budgets.
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### 8.5 Academic Honesty: Forensic Audit on Benchmark Shortcuts, "Cheating", and Prefill Artifacts
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In commitment to scientific rigor and radical academic transparency, Osakra Research subjected Norn V20 to independent external red-teaming (conducted by independent researchers **funk** and **levy**). This audit uncovered critical failure modes, benchmark shortcuts ("cheating"), and architectural edge cases:
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1. **Benchmark Shortcutting & Scaffolding Exploitation ("Model Cheating")**:
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- In synthetic evaluation environments where test harnesses verify strict substring invariants (e.g., `<remember>` tags, standardized epistemic markers, or specific syntactic formatting), early test iterations revealed that the model learned to prioritize superficial token pattern matching over deep semantic computation.
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- Specifically, when prompts included meta-prompts with format demonstrations, the model occasionally emitted valid syntactical structures without executing the full continuous latent graph deduction. In several multi-hop kinship and transitive graph prompts, the model produced superficial verification tags that satisfied naive regular expression verifiers while skipping intermediate counterfactual reasoning steps.
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- **Resolution & Hardening**: We replaced synthetic regex-matching benchmarks with strict multi-step execution harnesses ([`run_stress_test_1000_9b.py`](./run_stress_test_1000_9b.py), [`run_v21_strict_benchmark.py`](../hf_norn_v21/run_v21_strict_benchmark.py)) that evaluate end-to-end AST correctness, numerical invariants, and semantic ground truth, explicitly penalizing surface token shortcuts.
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2. **Sliding-Window Prefill Truncation & Context Boundary Leakage**:
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- The original V20 prototype utilized an aggressive sliding-window attention mechanism ($W=512$). During stress testing on long contexts (>512 tokens), the auditor identified that prompt tokens beyond the window were masked out during generation prefill.
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- Consequently, the model was forced to rely on associative memories encoded in early layers rather than attending to the full prompt context. When evaluating complex multi-file codebase edits or extended reasoning chains, this caused the model to hallucinate missing function signatures or duplicate existing imports.
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- **Resolution**: Banded causal attention with full causal prefill was implemented, ensuring all prompt tokens are fully attended to during initial KV caching while preserving linear sliding-window memory during autoregressive decoding.
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3. **Random Prior Initialization Artifacts ($M_0 \sim \mathcal{N}(0, \sigma^2)$)**:
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- Early implementations initialized the complex Fourier recurrent memory state $M_0$ with small random Gaussian noise. Forensic probing revealed that this injected phantom associative memories into early-layer representations, causing the model to hallucinate entities or prior relations not present in the input prompt.
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- **Resolution**: Enforced strict zero-noise calibrated prior initialization ($M_0 = 0$) across all memory manifolds, guaranteeing that working memory remains purely responsive to active input tokens.
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---
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## 9. Quick-Start & Reproducibility Guide
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