lucataco/gemma-4-31b-it 🖼️🔢📝 → 📝
Performance
About
Gemma 4 31B Instruct - Google open-weight VLM (image + text in, text out)
Example Output
"Explain quantum computing in simple terms"
Output
To understand quantum computing, you first have to understand how a classical computer (the phone or laptop you are using right now) works.
1. The Classical Way: Bits
Classical computers use Bits. A bit is like a light switch: it can be either Off (0) or On (1).
Everything you do on a computer—typing an email, watching a video, playing a game—is just billions of these 0s and 1s flipping on and off in different combinations. It’s very fast, but it can only do one thing at a time: it processes a sequence of steps.
2. The Quantum Way: Qubits
Quantum computers use Qubits. These are based on the laws of quantum physics, and they have two "superpowers" that make them different from regular bits:
Superpower #1: Superposition (The Spinning Coin)
Imagine you flip a coin. While it’s lying on the table, it is either Heads (1) or Tails (0). That is a classical bit.
But imagine a coin spinning on the table. While it is spinning, it is sort of both heads and tails at
Performance Metrics
All Input Parameters
{
"top_p": 0.95,
"prompt": "Explain quantum computing in simple terms",
"temperature": 0.7,
"system_prompt": "",
"max_new_tokens": 256
}
Input Parameters
- image
- Optional input image for multimodal queries.
- top_p
- Nucleus sampling top-p.
- prompt
- User prompt. The chat template is applied automatically.
- temperature
- Sampling temperature. 0 = greedy decoding.
- system_prompt
- Optional system prompt.
- max_new_tokens
- Maximum number of tokens to generate.
Output Schema
Output
Version Details
- Version ID
14c757b42dc096c7d2926c72b40503f5d4acbf1b9b27e910e6722b2a96e51cde- Version Created
- May 3, 2026