Sovereign Neural Intelligence Built from First Principles
Continuous Latent Reasoning β’ Gated Linear Attention β’ Speculative Leap Decoding β’ Two-Tier Hierarchical MoE
ποΈ Hugging Face Fleet β’ π Open-Source Governance β’ β‘ Model Matrix
DeepNarra is an independent AI research organization dedicated to developing sovereign, high-efficiency neural architectures designed for extreme reasoning depth, deterministic stability, and high-throughput on-device inference.
DeepNarra unifies breakthroughs across Symplectic Hamiltonian continuous latent spaces, Chunk-wise Gated Linear Attention (GLA) recurrence, DAG-guided speculative leap drafting, and 1.58-bit ternary quantization (TQ1_0). Every architecture is validated for zero numerical degradation, transparent dataset lineage, and open-source compliance under the Apache License 2.0.
| Model | Designation | HF Stored Parameters | Active / Token | Primary Architectural Invariant | Target Latency / Throughput |
|---|---|---|---|---|---|
π DeepNarra/Paham |
The Sovereign Sage | 4,171,887 (4.17M) |
Adaptive | Shannon Entropy 3-Gear Elastic Router (~1.2M β ~2.5M β ~4.17M), 75% GLA + 25% GLM-5 DSA, Zero-Drift Awake GGUF-QLoRA sidecars |
1,680+ tok/s |
π§ͺ Paham-Experimental |
3-Tier Continuum Sage | 4.17M + Adapters |
Adaptive | 3-Tier Awake-Sleep Continual Learning: Tier 1 Fast-Weights ($S_t$) + Tier 2 Sidecar-QLoRA ($r=8$) + Tier 3 MoE Router Gating | Experimental |
π DeepNarra/Hiraya |
The Sovereign Fruit & Flagship | 28,520,370 (28.5M) |
6.2M |
768-D Coconut Continuous Latent Space (<think>), Symplectic StΓΆrmer-Verlet dynamics, Minkowski Lorentz Hyperboloid |
378.5 tok/s |
π² DeepNarra/Narra |
The H-MoE Bedrock Tree | 28,519,602 (28.5M) |
6.2M |
Strictly Locked 128K Context (131,072), Chunk-wise GLA Recurrence, Lyapunov Stability Bounding (6.0 B/rec state pool) |
325.2 tok/s |
π¦ DeepNarra/Mako |
The Speed Predator | 28,519,602 (28.5M) |
6.2M |
Multi-Token Prediction (k=4 MTP), Prompt Lookup Decoding (k=50 PLD), O(1) Parallel Causal DAG Attention Tree |
1,000β3,000+ tok/s draft |
π Hiraya-1-Reasoning |
Phase 4 Reasoning Summit | 908,645,372 (0.91B) |
~100M |
2,500 steps Autonomous Boxing Gym, SymPy Formal CAS verification, DeepSeek-R1 GRPO (+1.45 verifier reward) |
92 Sub-Experts |
π Hiraya-1-Instruct |
Phase 3 14-Horizon Agent | 908,645,372 (0.91B) |
~100M |
Aligned across 14 Horizons (Prose, Code, Math, CUA <click>, MUA <touch>) with DoReMi auto-curriculum & OHEM gate |
92 Sub-Experts |
β‘ Hiraya-1-H-MoE |
Phase 2 92-Expert H-MoE | 908,645,372 (0.91B) |
~100M |
23 Heterogeneous Macro-Engines Γ 4 Micro-Experts = 92 Sub-Experts per layer + Persistent Shared Foundation Expert | 736 Total Experts |
ποΈ Hiraya-1-Base |
Phase 1 Dense Foundation | 117,993,216 (118M) |
80.5M Tied |
75% Mamba-2 SSD + 25% Differential Attention + BitNet b1.58 ternary weights + SwiGLU | Muon + AdamW |
Hiraya bypasses the discrete autoregressive token bottleneck by computing reasoning chains directly in a 768-dimensional continuous latent manifold. Deliberation steps evolve according to Symplectic StΓΆrmer-Verlet Hamiltonian physics ($\Delta E < 10^{-13}$ energy preservation) and Minkowski Lorentz Hyperboloid geometry, projecting reasoning trajectory states into natural language only when conclusions solidify.
Narra enforces a strictly bounded 128K token context window (131,072) that operates with linear computational complexity. By leveraging Chunk-wise Gated Linear Attention (GLA) with Lyapunov stability decay bounding, Narra maintains constant memory footprints across sustained million-token reasoning epochs without recurrent state drift.
Mako eliminates serial generation latency by coupling Multi-Token Prediction (k=4) with high-speed Prompt Lookup Decoding (k=50). A specialized $O(1)$ parallel causal DAG attention verification mask validates candidate draft tokens simultaneously in a single forward pass, unlocking generation rates from 1,000 to over 3,000 tokens per second.
Paham unites the continuous latent exploration of Hiraya, the linear recurrent bedrock of Narra, and the speculative speed of Mako. Governed by a Shannon Entropy 3-Gear Elastic Router, Paham dynamically scales its active capacity from Edge Nano (~1.2M) to Deep Reasoning (~4.17M), integrated with Awake Continuum GGUF-QLoRA sidecars ensuring $0.00%$ base model degradation.
All primary edge models are distributed in native 1.58-bit Ternary Quantization (model-TQ1_0.gguf) and serialized PyTorch Safetensors:
0.81 MB (Paham) to 5.85 MB (Hiraya / Narra / Mako).< 15 MB total working set memory.FineWeb-Edu, Aya Collection, CodeFeedback-Filtered, and No-Robots).