Qlarify: Recursively Expandable Abstracts for Directed Information Retrieval over Scientific Papers
Raymond Fok, Joseph Chee Chang, Tal August, Amy X. Zhang, Daniel S. Weld
TL;DR
Qlarify introduces recursively expandable abstracts to bridge the gap between scientific abstracts and full-text papers. It uses retrieval-augmented generation and a mixed-initiative interface to iteratively expand abstracts with concise, attributed information from full texts, guided by AI-suggested and static questions. Across an interview study (N=9), a field deployment (N=275), and a comparative evaluation (N=12), participants showed improved information foraging, deeper exploration, and higher satisfaction compared to traditional abstract reading or plain QA. The approach demonstrates promising implications for low-effort, just-in-time scholarly reading, while acknowledging challenges around factual accuracy, interface distraction, and potential over-reliance on AI-generated expansions.
Abstract
Navigating the vast scientific literature often starts with browsing a paper's abstract. However, when a reader seeks additional information, not present in the abstract, they face a costly cognitive chasm during their dive into the full text. To bridge this gap, we introduce recursively expandable abstracts, a novel interaction paradigm that dynamically expands abstracts by progressively incorporating additional information from the papers' full text. This lightweight interaction allows scholars to specify their information needs by quickly brushing over the abstract or selecting AI-suggested expandable entities. Relevant information is synthesized using a retrieval-augmented generation approach, presented as a fluid, threaded expansion of the abstract, and made efficiently verifiable via attribution to relevant source-passages in the paper. Through a series of user studies, we demonstrate the utility of recursively expandable abstracts and identify future opportunities to support low-effort and just-in-time exploration of long-form information contexts through LLM-powered interactions.
