Reasoning model benchmarks explained: GPQA, AIME, MATH, and coding scores

Reasoning models use chain-of-thought to solve complex problems. But which benchmarks actually measure their reasoning ability, and which are just marketing?

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Pricing data sourced from our catalog. Check data sources for provenance and freshness.

What are reasoning models?

Reasoning models (like OpenAI's o3, DeepSeek's R1, and Qwen's Thinking variants) use chain-of-thought prompting to solve complex problems. Instead of answering immediately, they "think through" the problem step by step, which can significantly improve accuracy on difficult tasks.

However, not all benchmarks are created equal. Some measure genuine reasoning ability, while others test knowledge recall or pattern matching. Here's what you need to know.

Key reasoning benchmarks

GPQA Diamond

Graduate-level science questions

reasoning

AIME 2024

American Invitational Mathematics Examination

math

MATH-500

Competition mathematics problems

math

LiveCodeBench

Real-time coding challenges

coding

SWE-bench Verified

Real GitHub issue resolution

coding

Aider Polyglot

Multi-language code editing

coding

Reasoning model benchmark comparison

Here's how the top reasoning models compare across key benchmarks. Scores are accuracy percentages (higher is better).

Model GPQA AIME MATH Coding
deepseek-r1 fireworks_ai
71.5 79.8 97.3 65.9
deepseek-r1-basic fireworks_ai
71.5 79.8 97.3 65.9
deepseek-r1-671b lambda_ai
71.5 79.8 97.3 65.9
us.deepseek.r1-v1:0 bedrock_converse
71.5 79.8 97.3 65.9
deepseek-r1-turbo novita
71.5 79.8 97.3 65.9
deepseek-r1-8b llamagate
71.5 79.8 97.3 65.9
deepseek-r1-7b-qwen llamagate
71.5 79.8 97.3 65.9
qwen3-next-80b-a3b-thinking dashscope
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How to interpret reasoning benchmarks

High scores mean different things

  • GPQA Diamond: Genuine scientific reasoning at graduate level
  • AIME: Mathematical problem-solving with multi-step reasoning
  • MATH-500: Competition math requiring creative approaches
  • LiveCodeBench: Real-world coding ability on fresh problems
  • SWE-bench: Practical software engineering on actual GitHub issues

Common pitfalls

  • Don't compare reasoning models to non-reasoning models on the same benchmarks
  • Check if scores are from the same version/date (reasoning models improve rapidly)
  • Look at multiple benchmarks - no single number tells the whole story
  • Consider cost: reasoning tokens are expensive, so check price-per-correct-answer

When to use reasoning models

Reasoning models excel at:

  • Complex mathematical proofs and calculations
  • Multi-step coding problems and debugging
  • Scientific analysis requiring deep understanding
  • Strategic planning with many constraints
  • Tasks where accuracy matters more than speed

They're less ideal for:

  • Simple Q&A or factual lookups
  • High-throughput applications where latency matters
  • Tasks that don't benefit from step-by-step reasoning
  • Budget-constrained applications (reasoning tokens cost more)

Compare reasoning models

Ready to compare reasoning models side by side? Use our tools:

Frequently asked questions

What makes a model a "reasoning" model?

Reasoning models use chain-of-thought prompting to solve problems step by step, rather than answering immediately. They typically have "o", "r1", or "thinking" in their names.

Are reasoning models always better?

No. Reasoning models excel at complex tasks but are slower, more expensive, and overkill for simple questions. Use them when accuracy on hard problems matters more than speed or cost.

How often do reasoning model benchmarks change?

Rapidly. Reasoning models are updated frequently, and benchmark scores can change significantly with each version. Always check the date of the benchmark results.

Benchmark data sourced from official provider reports, academic papers, and independent evaluations. Scores may vary by version and evaluation methodology.