π ATLAS v1.0.0 (NWM) β The Negentropic World Model
"To decide is to let reality and purpose carve the path out of the fog."
ATLAS (Architecture for Teleological Logic and Adaptive Sovereignty) is a novel class of "World Model" designed for the orchestration of high-performance computing in biology. Unlike Generative models that predict the next token, ATLAS is a Predictive Architecture (inspired by LeCun's I-JEPA) that predicts the Optimal Path in a decision space.
It serves as the Sovereign Logic Layer for the BioContinuum, specifically architected to pilot NVIDIA BioNeMo workflows on Starcloud orbital infrastructure.
ποΈ Architecture & Philosophy
ATLAS creates a bridge between Local Intent (Terra) and Massive Compute (Orbital). It operates on the Entanglement Axiom: Software and Hardware are not separate, but entangled states of a single computational system.
The "Soft Collapse" Mechanism ($dC/dt$)
Instead of binary filtering ("Hard Collapse"), ATLAS applies a continuous differential transformation to candidate solutions (e.g., protein folding candidates).
The probability of selecting a path $P(x)$ is determined by the Teleological Equation:
Where:
- $\kappa$ (Kappa): Internal Order (Structural Stability).
- $\lambda$ (Lambda): Gravitational Constraints (Energy/Compute Cost).
- $\tau$ (Tau): Teleological Driver (Alignment with the Goal/Function).
The Metric: NER (Negentropic Efficiency Ratio)
We do not optimize for accuracy alone. We optimize for Meaning per Joule.
π» Quick Start: Using ATLAS in Python
ATLAS is built as a custom transformers model. You can load the sovereign logic directly using trust_remote_code=True.
import torch
from transformers import AutoConfig, AutoModel
# 1. Load the Sovereign Configuration (ΞΊ, Ξ», Ο)
config = AutoConfig.from_pretrained("aguennoune17/atlas-v1-nwm", trust_remote_code=True)
# 2. Instantiate the Atlas Model (The Logic Engine)
model = AutoModel.from_pretrained("aguennoune17/atlas-v1-nwm", trust_remote_code=True)
# 3. Define your Candidates (e.g., 3 potential CRISPR guides)
# Format: [Stability_Score, Alignment_Score, Compute_Cost]
candidates = torch.tensor([
[0.9, 0.8, 0.2], # Candidate A (High Stability, Low Cost)
[0.95, 0.9, 0.9], # Candidate B (High Stability, Very High Cost)
[0.4, 0.1, 0.1] # Candidate C (Noise)
])
# 4. Apply Soft Collapse
decision = model(candidates)
print(f"Probabilities: {decision.probabilities}")
print(f"NER Scores: {decision.ner_scores}")
print(f"Selected Candidate Index: {decision.selected_indices}")
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