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This paper introduces a rigorous benchmark framework designed to evaluate scientific novelty metrics without relying on noisy ground-truth labels like citation counts or peer review scores. By testing systems against three specific axioms regarding content coverage, relevance loss, and temporal decay, the study reveals that while current methods effectively detect surface redundancy, they still struggle with conceptual overlap in AI-generated research. The release of this evaluation code provides a critical tool for refining how automated agents assess innovation to prevent wasted computational resources on redundant ideas.
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An Axiomatic Benchmark for Evaluation of Scientific Novelty Metrics

arXiv3 min read

arXiv:2604.15145v2 Announce Type: replace Abstract: The rigorous evaluation of the novelty of a scientific paper is, even for human scientists, a challenging task. With the increasing interest in AI scientists, it is becoming more and more important that this task be automatable and reliable, lest attention and compute be wasted on ideas that have already been explored. Due to the challenge of quantifying ground-truth novelty, however, existing novelty metrics generally validate against noisy, confounded signals such as citation counts or peer review scores. We introduce a benchmark that compares novelty metrics without requiring explicit novelty labels. It tests whether scores move correctly under controlled pool manipulations, organized under three axioms requiring that scores fall as the pool covers more of a paper's content, rise as the pool loses relevance, and fall as the pool moves later in time. Indeed, we show that even for the most direct human signal, ICLR reviewer novelty scores, the axis of novelty is entangled with quality. Across ten systems, from embedding metrics to AI scientist novelty checks, we find that surface redundancy is largely solved but conceptual redundancy is not, and that embedding metrics and LLM-based metrics both have their places; future metrics should combine such approaches for better novelty evaluation. We release our benchmark and evaluation code to enable this research.

Abstract:The rigorous evaluation of the novelty of a scientific paper is, even for human scientists, a challenging task. With the increasing interest in AI scientists, it is becoming more and more important that this task be automatable and reliable, lest attention and compute be wasted on ideas that have already been explored. Due to the challenge of quantifying ground-truth novelty, however, existing novelty metrics generally validate against noisy, confounded signals such as citation counts or peer review scores. We introduce a benchmark that compares novelty metrics without requiring explicit novelty labels. It tests whether scores move correctly under controlled pool manipulations, organized under three axioms requiring that scores fall as the pool covers more of a paper's content, rise as the pool loses relevance, and fall as the pool moves later in time. Indeed, we show that even for the most direct human signal, ICLR reviewer novelty scores, the axis of novelty is entangled with quality. Across ten systems, from embedding metrics to AI scientist novelty checks, we find that surface redundancy is largely solved but conceptual redundancy is not, and that embedding metrics and LLM-based metrics both have their places; future metrics should combine such approaches for better novelty evaluation. We release our benchmark and evaluation code to enable this research.

Artificial Intelligence (cs.AI); Digital Libraries (cs.DL)

arXiv:2604.15145 [cs.AI]

(or arXiv:2604.15145v2 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2604.15145 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 307 words

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