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Beyond Binary Edits Robust Multimodal Knowledge Editing with Adversarial Subspace Alignment Agentic Proving for Program Verification MemAudit: Post-hoc Auditing of Poisoned Agent Memory via Causal Attribution and Structural Anomaly Detection OpenSkillEval: Automatically Auditing the Open Skill Ecosystem for LLM Agents One Policy, Infinite NPCs: Persona-Traceable Shared RL Policies for Scalable Game Agents How Human-Like Are Large Language Models? A Register-Aware Linguistic Evaluation Framework Benchmarking Google Embeddings 2 against Open-Source Models for Multilingual Dense Retrieval and RAG Systems Structure-Guided Entity Resolution: Fine-Tuning LLMs for Robust Name Matching in Complex Linguistic Contexts Solving the Aircraft Disassembly Scheduling Problem Co-ReAct: Rubrics as Step-Level Collaborators for ReAct Agents CP or DP? Why Not Both: A Case Study in the Partial Shop Scheduling Problem Asking For An Old Friend: Diagnosing and Mitigating Temporal Failure Modes in LLM-based Statutory Question Answering EDGE-OPD: Internalizing Privileged Context with Evidence Guided On-Policy Distillation ARES: Automated Rubric Synthesis for Scalable LLM Reinforcement Learning SSDAU: Structured Semantic Data Augmentation for Joint Entity and Relation Extraction Naturalistic measure of social norms alignment Articulatory strategy as a source of variation in acoustic vowel dynamics When Planning Fails Despite Correct Execution: On Epistemic Calibration for LLM-Based Multi-Agent Systems EquiSumm : A Gender Bias-Aware Framework for Inclusive Tweet Summarization Metacognition as Reward: Reinforcing LLM Reasoning via Knowledge and Regulation Signals From Correctness to Preference: A Framework for Personalized Agentic Reinforcement Learning Cultural Adaptation in Large Language Models for Political Discourse Emotion Recognition in Sign Language Conversation ClimateChat-300K: A Multi-Modal Facebook Dataset for Understanding Diverse Perspectives in Climate Communication AraHopeCorpus: Annotation Guidelines and Dataset for Hope Speech in Arabic Social Media Crisis Discourse Human-in-the-Loop Multi-Agent Ventilator Decision Support with Contextual Bandit Preference Learning Convergence Without Understanding: When Language Models Agree on Representations but Disagree on Reasoning DART: Semantic Recoverability for Structured Tool Agents Ontological Knowledge Blocks: Executable Compliance and Profile-Based Validation for Trustworthy AI Systems Parallel Context Compaction for Long-Horizon LLM Agent Serving
Comparing ML-Specific and General Python Code Smells Acro...
Halimeh Agh, Betül Cimendag, Stefan Wagner · 2026-06-01 · via cs updates on arXiv.org

Machine learning systems consist of general-purpose code as well as machine-learning-specific code. While ML-specific code smells have been identified, their connection to project characteristics and their interaction with overall code quality are not well understood. Without this knowledge, quality assurance strategies remain one-size-fits-all, failing to account for the contextual factors that drive technical debt in ML systems. We present empirical evidence by examining how six project features (size, age, contributors, commit frequency, CI/CD adoption, and domain) relate to both ML-specific and general Python code quality in 279 open-source ML projects on GitHub. Using CodeSmile for ML code smells and Pylint for general Python smells, our results show: (1) ML code smells are 41-94 times less frequent than general Python smells; (2) commit frequency and domain are significantly associated with ML-specific quality, while project size, team size, age, and CI/CD adoption are not, challenging traditional views on technical debt; (3) general Python smells are not linked to any project characteristic, indicating systemic coding issues that are independent of project context; (4) domains that suffer most from ML-specific smells are not necessarily the same domains that suffer most from general Python smells, necessitating tailored quality strategies for each smell type. MLOps often involves configuration issues, Reinforcement Learning faces challenges with tensor manipulation, and Computer Vision encounters problems with GPU workflows. Overall, ML code quality depends on domain-specific practices and specialized CI/CD quality gates, as standard automation often overlooks domain-specific correctness problems.