Automated Evaluation
Overview
Automated evaluation studies how to measure the quality, correctness, safety, and usefulness of AI outputs and systems without relying entirely on manual review. Common approaches include reference-based metrics, reference-free scoring, LLM-as-a-judge, rubric and checklist scoring, pairwise comparisons, and executable tests that verify code, tools, or interactive behavior. Benchmarks increasingly assess agents through full task trajectories and evidence from browsers, databases, or other environments, while statistical calibration and targeted human review help interpret results. The central challenge is making automated scores valid, robust across tasks and populations, and resistant to bias or gaming; agreement with human ratings alone does not guarantee that an evaluator measures the intended capability.
Latest papers
398 papers38 papers in the last four weeks, down 16% on the four weeks before. 0.2% of all new papers.
An Interactive Multi-Agent System for Evaluation of New Product Concepts
Vibe Code Bench: Evaluating AI Models on End-to-End Web Application Development
SpotIt+: Verification-based Text-to-SQL Evaluation with Database Constraints
Rich Insights from Cheap Signals: Efficient Evaluations via Tensor Factorization
When Numbers Tell Half the Story: Human-Metric Alignment in Topic Model Evaluation
Resources for Automated Evaluation of Assistive RAG Systems that Help Readers with News Trustworthiness Assessment
Human or Machine? A Preliminary Turing Test for Speech-to-Speech Interaction
TARAZ: Persian Short-Answer Question Benchmark for Cultural Evaluation of Language Models
E-comIQ-ZH: A Human-Aligned Dataset and Benchmark for Fine-Grained Evaluation of E-commerce Posters with Chain-of-Thought
Voices of the Mountains: Deep Learning-Based Vocal Error Detection System for Kurdish Maqams
DEEP: Docker-based Execution and Evaluation Platform
Orchestrating LLM Agents for Scientific Research: A Pilot Study of Multiple Choice Question (MCQ) Generation and Evaluation
authoring items'' toward {specification, orchestration, verification}, and {governance}. Formalizing constraints, designing rubrics, building validation loops, recovering from tool failures, and auditing provenance constituted the primary activities. We discuss implications for the future of scientific work, including emerging AI research operations'' skills required for AI-empowered research pipelines.