SciR: A Controllable Benchmark for Scientific Reasoning in LLMs

arXiv cs.AI Papers

Summary

SciR is a new controllable benchmark for evaluating LLMs on scientific reasoning including deduction, induction, and causal abduction, with parametric control over extraction and inference difficulty. Tests show both axes degrade performance across models, with reasoning models like DeepSeek-R1 outperforming instruct models on inference.

arXiv:2606.13020v1 Announce Type: new Abstract: Three paradigmatic forms of inference recur across scientific reasoning: deduction, induction, and causal abduction. Reliably evaluating LLMs on these in scientific settings is currently out of reach: scientific benchmarks built on human annotations are costly and lack mechanistic ground truth, while synthetic logical-reasoning benchmarks do not resemble real scientific documents. We introduce SciR, a benchmark that combines multi-paradigm reasoning with controllable scientific rendering, anchored on three paradigmatic scientific problems. Tasks are generated from formal objects (deduction tree, inductive rule hypothesis, causal graph) to guarantee verifiable answers, then rendered into multi-document scientific discourse via per-track domain-tuned genres. The construction lets us independently vary two difficulty axes: how hard it is to extract the key information needed for inference, and how hard the principled inference itself is. We test six models. Both axes hurt every model, and their effects compound. The rendering even hurts neurosymbolic pipelines, which hand inference to a verified solver. The two axes yield a per-model extraction-vs-inference profile: for instance, reasoning models like deepseek-r1 mostly surpass non-reasoning instruct models on the inference axis. To our knowledge, SciR is the first multi-paradigm scientific-reasoning benchmark with parametric control on both extraction and inference difficulty.
Original Article
View Cached Full Text

Cached at: 06/12/26, 08:55 AM

# SciR: A Controllable Benchmark for Scientific Reasoning in LLMs
Source: [https://arxiv.org/abs/2606.13020](https://arxiv.org/abs/2606.13020)
[View PDF](https://arxiv.org/pdf/2606.13020)

> Abstract:Three paradigmatic forms of inference recur across scientific reasoning: deduction, induction, and causal abduction\. Reliably evaluating LLMs on these in scientific settings is currently out of reach: scientific benchmarks built on human annotations are costly and lack mechanistic ground truth, while synthetic logical\-reasoning benchmarks do not resemble real scientific documents\. We introduce SciR, a benchmark that combines multi\-paradigm reasoning with controllable scientific rendering, anchored on three paradigmatic scientific problems\. Tasks are generated from formal objects \(deduction tree, inductive rule hypothesis, causal graph\) to guarantee verifiable answers, then rendered into multi\-document scientific discourse via per\-track domain\-tuned genres\. The construction lets us independently vary two difficulty axes: how hard it is to extract the key information needed for inference, and how hard the principled inference itself is\. We test six models\. Both axes hurt every model, and their effects compound\. The rendering even hurts neurosymbolic pipelines, which hand inference to a verified solver\. The two axes yield a per\-model extraction\-vs\-inference profile: for instance, reasoning models like deepseek\-r1 mostly surpass non\-reasoning instruct models on the inference axis\. To our knowledge, SciR is the first multi\-paradigm scientific\-reasoning benchmark with parametric control on both extraction and inference difficulty\.

## Submission history

From: Pierre Beckmann \[[view email](https://arxiv.org/show-email/7408fb1d/2606.13020)\] **\[v1\]**Thu, 11 Jun 2026 07:54:22 UTC \(379 KB\)

Similar Articles

FALSIFYBENCH: Evaluating Inductive Reasoning in LLMs with Rule Discovery Games

arXiv cs.AI

FalsifyBench is a new evaluation framework for assessing inductive reasoning in LLMs, inspired by the Wason 2-4-6 task, where agents discover hidden semantic rules by proposing examples and receiving feedback. Evaluation of 12 LLMs shows reasoning models outperform instruction-tuned models, with negative testing (hypothesis falsification) being the key driver of success.