cs.DLMay 24, 2026

Catalyst Papers in Artificial Intelligence Research: A Landscape on ICLR from 2017 to 2025

Authors: Fan Huang

Organizations: Indiana University Bloomington

Abstract

A small number of methodological contributions, including word2vec, the Transformer, large-scale pre-training, and reinforcement learning from human feedback, have reshaped NLP and AI research over the past decade. OpenReview now makes numeric reviewer scores and accept/reject decisions public for every ICLR submission. Whether such review signals identify trajectory-changing papers at submission time, however, remains untested at corpus scale. We answer this question on 36,11336{,}113 papers from ICLR 2017--2025, identifying \emph{catalysts}: papers whose descendants measurably redirect future research. We compare four disruptiveness measures (the Consolidation/Destabilization (CD) index, node2vec, the direction-aware Embedding Disruptiveness Measure (EDM), and an LLM-based semantic rater) and define a five-type operational catalyst taxonomy (topic initiator, topic bridge, within-topic redirector, simultaneous, and recognition-misaligned). EDM leads at identifying highly cited ICLR papers (AUC 0.830.83 vs.\ 0.600.60 for CD, 0.490.49 for node2vec, and 0.420.42 for the LLM rater). Topic initiators precede a 7.55×7.55{\times} topic-share growth and topic bridges precede an 11.52×11.52{\times} growth in cross-topic citation flow versus year-matched controls. We found that the peer review scores are essentially orthogonal to future disruptiveness (ρ0.005|ρ|{\leq}0.005; accepted and rejected papers have indistinguishable mean EDM, p=0.11p{=}0.11).

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