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Head to head

Nemotron 3.5 Super VL (120B A12B) vs Claude Opus 5.5

How Nemotron 3.5 Super VL (120B A12B) and Claude Opus 5.5 stack up across benchmarks, pricing, speed, and the workloads that matter.

Nemotron 3.5 Super VL (120B A12B)

NVIDIA · Open weights

Blended price$0.29per 1M tokens
Context262Ktokens
Speedn/atok/s
Benchmarks19results
VS

Claude Opus 5.5

Anthropic · Proprietary

Blended price$5.78per 1M tokens
Context1Mtokens
Speed10.8tok/s
Benchmarks31results

Nemotron 3.5 Super VL (120B A12B) is the cheaper of the two at $0.29 per million blended tokens, about 20.0x less than Claude Opus 5.5 at $5.78. On math, Claude Opus 5.5 leads by about 22 points in our normalized benchmark average.

The table below breaks down every workload axis where both models have published results. Each score is a normalized 0 to 1 average across the benchmarks tagged with that category. A gap of a few points is noise; a gap of ten or more is a real difference in capability. Where one model has not reported a result, the cell shows n/a and the missing benchmark does not drag its average down.

Benchmark scores by workload

WorkloadNemotron 3.5 Super VL (120B A12B)Claude Opus 5.5Edge
Reasoning 55% 74% +19.4 pts
Coding 61% 73% +12.4 pts
Agents & tool use 47% 63% +15.7 pts
Math 52% 74% +22.1 pts
Vision & multimodal 65% 80% +15.1 pts
Long context 66% n/a n/a
Writing n/a 61% n/a
Knowledge & factuality 55% 77% +21.5 pts

The headline benchmarks below are the most widely cited individual tests. GPQA Diamond measures graduate-level reasoning in physics, chemistry, and biology. SWE-Bench Verified tests whether a model can fix real GitHub issues. MMMU-Pro covers college-level multimodal understanding across six disciplines. AIME and FrontierMath push competitive and research math. BrowseComp measures web research ability.

Headline benchmarks

BenchmarkNemotron 3.5 Super VL (120B A12B)Claude Opus 5.5
GPQA 90% n/a
SWE-Bench Verified 71% n/a
BrowseComp 78% n/a

Benchmarks tell you what a model can do in a controlled setting. They do not tell you whether it will work on your specific task, with your specific data, at your specific scale. The recommendations below map each common workload to whichever of these two models scores higher on the relevant axis. Use them as a starting point, not a final answer.

Which should you choose?

Hard reasoning

Multi-step analysis, research, and problems that need sustained thought.

Claude Opus 5.5

Coding & software

Writing, reviewing, and debugging code across a real codebase.

Claude Opus 5.5

Agents & tool use

Long-running agents that call tools, browse, and act on their own.

Claude Opus 5.5

Math & science

Formal math, competitive problems, and quantitative science.

Claude Opus 5.5

Vision & documents

Reading images, screenshots, charts, and dense documents.

Claude Opus 5.5

Long documents

Whole codebases, books, and transcripts that fill the context window.

Nemotron 3.5 Super VL (120B A12B)

Writing & drafting

Copy, emails, and long-form drafting where tone matters.

Claude Opus 5.5

High-volume & cost-sensitive

Cheap, repetitive calls where the blended token price dominates.

Nemotron 3.5 Super VL (120B A12B)

Scores are normalized from public benchmarks published by llm-stats.com and averaged per workload. Pricing is the blended input/output cost per million tokens at an 8:1 mix. Refreshes daily. How this works.