Hypnos-i2-32B: Training Language Models with Multi Quantum Randomness
What Makes Hypnos Different?
Traditional language models rely on pseudo-random number generators (PRNGs) during training—deterministic algorithms that merely simulate randomness. Hypnos-i2-32B takes a radically different approach: it learns from true quantum randomness extracted from fundamental physical processes.
The Three Quantum Sources
Hypnos-i2 doesn't use just one quantum source—it combines three orthogonal entropy streams:
MATTER: Superconducting Qubits
- Source: IBM Quantum Heron processors (133-qubit systems)
- Physics: Quantum decoherence in superconducting circuits
- Timescale: Microsecond-level fluctuations
- What it adds: Fast-frequency robustness in attention mechanisms
LIGHT: Vacuum Fluctuations
- Source: ANU Quantum Random Number Generator
- Physics: Zero-point energy fluctuations in electromagnetic vacuum
- Timescale: Nanosecond-level noise
- What it adds: High-frequency filtering and noise resistance
NUCLEUS: Radioactive Decay
- Source: Fourmilab HotBits (Strontium-90)
- Physics: Poissonian distribution of nuclear decay events
- Timescale: Fundamental unpredictability
- What it adds: Deep entropy patterns impossible to predict
How It Works: Input-Level Quantum Regularization
Unlike typical dropout or noise injection at the architecture level, Hypnos uses context-level quantum augmentation:
- Before each training batch, unique entropy sequences are drawn from all three quantum sources
- These sequences are embedded directly into the context window of training examples
- The model learns to distinguish meaningful patterns (signal) from quantum noise
- Attention heads develop inherent resistance to high-entropy perturbations
This creates an effect similar to training a human in a noisy environment—they learn to focus on what matters and ignore distractions.
Real-World Results
The quantum regularization isn't just a theoretical curiosity—it delivers measurable improvements:
Benchmark Performance
- ArenaHard: 94.9 (+1.1 over base Qwen3-32B)
- AIME 2024: 86.2 (+4.8)
- AIME 2025: 79.5 (+6.6)
- LiveBench: 64.1 (+14.8)
- Codeforces: 2045 Elo (+68)
Robustness Breakthrough
The most striking result: 2.3% hallucination rate—dramatically lower than:
- Qwen3-32B Base: 5.9%
- Llama-3.1-405B: 5.2%
- Deepseek-R1: 14.3%
- Llama 4 Maverick: 8.2%
Why This Matters
For Researchers
- First successful implementation of multi-QPU training in LLMs
- Demonstrates that quantum noise can serve as a regularization technique
- Opens new avenues for physics-inspired ML architectures
For Developers
- More reliable outputs in production environments
- Better resistance to adversarial attacks and prompt injection
- Reduced mode collapse and repetitive generation
Try the Hypnos Family
Also you can test smaller 8B version Hypnos-i1 with only superconducting entropy from IBM Quantum!
Start with Hypnos-i1-8B or go full quantum with Hypnos-i2-32B
Built by scientists, for scientists. Trained with the universe's randomness.