Exploring Academic Influence of Algorithms by Co-occurrence Network Based on Full-text of Academic Papers
Summary
This paper constructs large-scale algorithm co-occurrence networks from the full text of academic papers to study the collective influence of algorithms in NLP, finding that classic, high-performing, and intersectional algorithms hold central network positions.
View Cached Full Text
Cached at: 06/24/26, 07:44 AM
# Exploring Academic Influence of Algorithms by Co-occurrence Network Based on Full-text of Academic Papers Source: [https://arxiv.org/abs/2606.24099](https://arxiv.org/abs/2606.24099) [View PDF](https://arxiv.org/pdf/2606.24099) > Abstract:Algorithms have become central to scientific research in the era of artificial intelligence \(AI\)\. Although algorithm mentions in papers are often used to indicate popularity and influence, existing studies usually evaluate individual algorithms in isolation and pay limited attention to the collective influence formed through their interconnections\. This study constructs large\-scale algorithm co\-occurrence networks in natural language processing \(NLP\) based on the full text of academic papers and investigates algorithm influence from a network perspective\. Using deep learning models, we extract algorithm entities and build overall, cumulative, and annual co\-occurrence networks\. We analyze their structural characteristics and apply multiple centrality measures to assess the group influence of algorithms across the whole field and over time\. The results show that algorithm networks display typical features of complex networks, with increasingly dense connections developing over approximately two decades\. Classic, high\-performing algorithms and those located at the intersections of different research periods tend to have high popularity, control, centrality, and balanced influence\. When the influence of an algorithm declines, it usually loses its core network position first, followed by weaker associations with other algorithms\. This study is the first large\-scale analysis of algorithm co\-occurrence networks\. Covering more than four decades of academic publications, it provides a temporal and structural view of algorithm influence and offers a foundation for future research on networks linking algorithms, scholars, and tasks\. ## Submission history From: Chengzhi Zhang \[[view email](https://arxiv.org/show-email/f4b4fabd/2606.24099)\] **\[v1\]**Tue, 23 Jun 2026 03:26:39 UTC \(1,706 KB\)
Similar Articles
@TheGlobalMinima: Do yourself a favour > go to http://paperswithcode.co > find “most cited” list of papers > read the top 10 papers > one…
Recommends reading the top most cited papers on Papers with Code, one or two per week, to deeply understand influential AI research.
Correcting Influence: Unboxing LLM Outputs with Orthogonal Latent Spaces
This paper introduces a framework for token-level influence attribution in large language models by learning orthogonal latent spaces with sparse autoencoders, enabling precise identification of training data tokens that jointly influence predictions, with applications in high-stakes domains like healthcare.
@dosco: i'm seeing a lot of industry papers that are karpathy's auto research loop (not cited) or a codex optimization goal for…
A critical observation about recent industry AI papers lacking novelty, citing examples like SkillOpt that treat natural-language skills as trainable external parameters.
From Meta Idea to Advanced Mathematical Discovery -- Human-AI Co-Discovery of Sign-Embedding Quantum Algorithms
This paper presents a case study of human-AI co-discovery in mathematics, where AI assisted in expanding an intuition about sign-embedding quantum algorithms into a formal framework and proofs, with human judgment guiding route selection.
The Scientific Contribution Graph: Automated Literature-based Technological Roadmapping at Scale
This paper introduces the Scientific Contribution Graph, a large-scale resource containing 2 million scientific contributions extracted from 230k open-access papers connected by 12.5 million prerequisite edges, and formulates the task of automated technological roadmapping and prerequisite prediction.