DREAM: Deep Research Evaluation with Agentic Metrics
Elad Ben Avraham, Changhao Li, Ron Dorfman, Roy Ganz, Oren Nuriel, Amir Dudai, Aviad Aberdam, Noah Flynn, Elman Mansimov, Adi Kalyanpur, Ron Litman

TL;DR
DREAM introduces an agentic evaluation framework for research agents that improves assessment of factual accuracy and temporal validity through adaptive, tool-enabled metrics, surpassing existing static benchmarks.
Contribution
The paper presents DREAM, a novel agentic evaluation framework that enhances research report assessment by incorporating tool-use capabilities for better factual and temporal validation.
Findings
DREAM is more sensitive to factual decay than existing benchmarks.
The framework enables temporally aware and grounded evaluation.
DREAM offers a scalable, reference-free assessment method.
Abstract
Deep Research Agents generate analyst-grade reports, yet evaluating them remains challenging due to the absence of a single ground truth and the multidimensional nature of research quality. Recent benchmarks propose distinct methodologies, yet they suffer from the Mirage of Synthesis, where strong surface-level fluency and citation alignment can obscure underlying factual and reasoning defects. We characterize this gap by introducing a taxonomy across four verticals that exposes a critical capability mismatch: static evaluators inherently lack the tool-use capabilities required to assess temporal validity and factual correctness. To address this, we propose DREAM (Deep Research Evaluation with Agentic Metrics), a framework that instantiates the principle of capability parity by making evaluation itself agentic. DREAM structures assessment through an evaluation protocol combining…
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Taxonomy
TopicsScientific Computing and Data Management · Topic Modeling · Machine Learning in Materials Science
