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Samsung shrinks reasoning

Samsung researchers have developed the Tiny Recursive Model, a compact 7-million parameter architecture that achieves competitive reasoning performance through iterative refinement rather than massive scale.

Joel Miller

Joel Miller

2 min read
Samsung shrinks reasoning

While new model architectures to challenge the transformer (the tried and trusted paradigm behind this wave of AI progress) emerge from time to time, few demonstrate comparable performance to those 10,000x larger. A Samsung researcher has this week demonstrated that a 7-million parameter model can match or beat large language models on specific reasoning tasks. The Tiny Recursive Model (TRM) achieves 45% accuracy on ARC-AGI-1 and 87% on extreme Sudoku puzzles, compared to near-zero performance from models like DeepSeek R1 with 671 billion parameters.

The approach works by having a small neural network repeatedly refine its answer through recursive loops. Rather than processing a problem once with massive parameters, TRM cycles through the same compact network up to 42 times, progressively improving its solution. Think of it like solving a Sudoku; you don’t need different brain circuits for each step, just the same logical process applied repeatedly.

Small LLMs continue to gain in popularity as they can help increase performance or reduce cost but combining LLMs with different and narrowly optimised models that have hyper-efficient super-powers could prove even more interesting. The mix recalls how CPUs and GPUs split computational workloads, each optimised for its specific role. The data show that recursion can substitute for depth, at least on tasks that demand structured reasoning rather than linguistic recall.

TRM’s success on the challenging ARC-AGI benchmark, which tests abstract reasoning on synthetic puzzles, indicates that compact models can achieve generalisation without massive size. Still, the model’s domain remains narrow. It hasn’t yet faced open-ended language tasks or perception challenges. But its performance points toward an approach that could complement, rather than replace, large language models.

Takeaways: While not broadly applicable, TRM demonstrates that specialised tasks might not need billion-parameter models and huge energy bills. For embedded systems or domain-specific elements of larger solutions, where parameter efficiency matters, recursive approaches could reduce computational requirements by orders of magnitude. Such a small model means the tech can be widely replicated today. TRMs could quickly start to influence AI system design and play a role in tackling structured reasoning challenges.