MiniMaxAI/MiniMax-M3
MiniMaxAI's MiniMax-M3 is a native multimodal model with approximately 428 billion parameters and 23 billion activated parameters, featuring a 1 million token context length. It is designed for deep semantic fusion across text, image, and video through mixed-modality training from inception. M3 introduces MiniMax Sparse Attention (MSA) for significant efficiency gains in long contexts, excelling in coding and agentic benchmarks.
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MiniMax-M3: A Native Multimodal Model
MiniMax-M3, developed by MiniMaxAI, is a powerful native multimodal model with approximately 428 billion parameters and 23 billion activated parameters, supporting an extensive 1 million token context length. Unlike models that add modalities later, M3 undergoes mixed-modality training from its initial stages, enabling deeper and more integrated semantic understanding across text, image, and video.
Key Capabilities & Innovations
- Native Multimodality: Achieves profound semantic fusion by training on diverse modalities (text, image, video) from the outset.
- Context Scaling with MiniMax Sparse Attention (MSA): Integrates MSA, a high-performance sparse attention operator, to dramatically improve efficiency for 1M token contexts. This results in 9x prefill and 15x decode speedups compared to M2, reducing per-token compute by 20x.
- Coding & Cowork: Demonstrates frontier-level performance in long-horizon agentic tasks, particularly strong in coding and collaborative work scenarios.
- Flexible Reasoning Modes: Offers
enabled,adaptive, anddisabledreasoning modes via thethinkingparameter, allowing users to balance reasoning depth with latency and throughput requirements.
Good For
- Applications requiring deep multimodal understanding and generation.
- Tasks benefiting from extremely long context windows, such as complex document analysis or extended conversations.
- Agentic workflows, coding assistance, and collaborative development environments.
- Developers seeking efficient inference for large multimodal models through optimized attention mechanisms.