MiniMax M3 - Better than Qwen, GLM & Opus? 🧐 Open Source AI TESTED

MiniMax M3 - Better than Qwen, GLM & Opus? 🧐 Open Source AI TESTED

πŸŽ™ xCreate πŸ‘₯ 26K πŸ“… June 28, 2026 ⏱ 25 min πŸ‘ 8K πŸ“„ expert opinion 🧭 2026-09-16
Available in: English (current) FranΓ§ais

Keywords

MiniMax M3local inferenceimage understandingtoken speedthinking modes

Summary

This video by xCreate provides a hands-on evaluation of MiniMax M3, an open-source AI model with vision capabilities. The presenter compares M3 with its predecessor M2.7 and other models like GLM and Kimi across various creative coding tasks, including voxel generation, piano animation, flappy birds, faces, Minecraft, procedural planets, canvas animations, city visualizations, Outrun cloning, Mario games, map visualizations, word games, and math problems. The testing involves three thinking modes: disabled, adaptive, and enabled. Key observations include M3’s larger size and slower speed (10-14 tokens/sec vs M2.7’s 30+), but improved visual understanding and better results when thinking is enabled. The model requires substantial memory (424 GB at 8.5-bit quantization) and has a non-commercial license. The presenter also notes issues with runtime errors and token inefficiency. Overall, while M3 shows progress in image understanding and code generation, it is slower and more resource-intensive, and the title’s claim of superiority over Qwen, GLM, and Opus is not fully substantiated in the video.

160 words

Critical Evaluation

Value of the Information & Strength of the Argument

The video offers valuable empirical data on MiniMax M3’s capabilities, directly comparing it with M2.7 and other models in a consistent test set. The argumentation is based on practical demonstrations rather than theoretical claims, showing actual outputs and discussing trade-offs such as speed vs intelligence. The presenter is candid about failures and limitations, which strengthens the credibility. However, the evaluation is subjective and lacks rigorous benchmark controls, and the comparison with Opus is notably absent despite being in the title.

Scientific Rigor, Source Quality, Title Accuracy

The video references its own test methodology and uses the HuggingFace model page as a primary source for model details. It also links to companion videos for other model evaluations, which adds context. The title is catchy but slightly misleading as it mentions Opus without direct testing. The content is scientifically presented in a practical manner, but the lack of statistical rigor and potential biases from the presenter’s preferences (e.g., speed vs intelligence) affect the overall reliability.

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Title / Content Match

The title promises comparison with Qwen, GLM and Opus, but the video mainly compares with GLM and Kimi, and Opus is not directly tested. Partially adequate, but the core focus on MiniMax M3 is clear.

Quality & Reliability

8/10

The video provides extensive hands-on testing with quantitative metrics (tokens, speed, memory) and clear comparisons, though subjective in evaluation. The presenter demonstrates real outputs and acknowledges limitations, lending credibility to the assessment.

Key Moments

Cited Sources

External References

Contribution & Novelties

This video provides a practical, side-by-side comparison of MiniMax M3 against its predecessor M2.7 and other open-source models, focusing on real-world creative coding tasks rather than standard benchmarks. It highlights M3’s enhanced vision capabilities and improved performance when using thinking modes, while also exposing the trade-offs in speed and memory usage. The licensing discussion adds important context for potential adopters.

Pour aller plus loin :

  • Large language model β€” Overview of LLMs, relevant context for understanding MiniMax M3.
  • Voxel β€” Explains the voxel representation used in generation tests.
  • Speculative decoding β€” Technique to speed up inference, mentioned as a possible optimization.
  • Procedural generation β€” Concept underlying the planet and map generation tests.

112 words

Radar Profile

The radar profile shows high scores in quantity of information (9) and technical level (8), indicating a comprehensive and detailed review. Quality of information (7) and reliability (7) are slightly lower, reflecting the subjective nature and lack of rigorous benchmarking. This suggests the video is informative but should be complemented with more formal evaluations.

Reliability 7/10