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Biology subjects

Sgolastra, F.

Publications and source records attributed to Sgolastra, F..

2 recordsLinked to original sources

MetaBeeAI: an AI pipeline for full-text systematic reviews in biology

The volume and complexity of scientific literature are expanding rapidly, making it increasingly difficult to extract and synthesise information across studies. This challenge is particularly acute in the biological sciences, where evidence spans multiple levels of organisation and heterogeneous experimental designs. Large Language Model (LLM) pipelines offer a scalable route to evidence synthesis, but many existing approaches lack transparency, modularity, and effective mechanisms for human oversight. We present MetaBeeAI, an open-source, modular pipeline that integrates established LLM techniques into a coherent, auditable workflow for structured data extraction in biology. MetaBeeAI combines modular prompting, multi-pass extraction, and expert-in-the-loop validation within an interface that presents model outputs alongside source text, enabling inspection, correction, and iterative refinement. The pipeline produces machine-readable records of prompts, configurations, and expert annotations, supporting reproducibility and continuous improvement. We apply MetaBeeAI to 924 research papers on bees and pesticides, extracting structured information on species, compounds, exposure designs, and experimental context. Evaluation demonstrates improved consistency, convergence with expert judgement, and robustness across heterogeneous biological studies, highlighting the value of expert-guided refinement. MetaBeeAI provides a transparent and extensible framework for scalable evidence synthesis, supporting reliable integration of LLMs into biological research workflows.

ecology↗

A phototaxis assay to measure sublethal effects of pesticides on bees

Pesticides are considered a main driver of world-wide bee declines. In agricultural areas, bees are exposed to combinations of pesticides at low concentrations. The extent to which these low levels may cause sublethal effects remains unknown. Laboratory methods to detect sublethal effects are needed as a first step in assessing the potential hazards of pesticides at low concentrations. Current bee risk assessment schemes rely on a single species, the highly social Apis mellifera, and provide insufficient coverage of sublethal effects. Due to fundamental life history differences, available tests cannot be applied to solitary bees. We provide a simple phototaxis assay to detect sublethal pesticide effects on bees. The assay is highly effective (only 6.63% of the bees failed to respond) and provides an unambiguous binary response (bees either walk straight to the light source or walk erratically across the arena). We validate the assay by conducting two experiments. In the first one, we estimate dose-response curves and calculate ED50 and benchmark dose (BMD) values of an insecticide on Osmia bicornis and O. tricornis. In the second one, we assess the effects of three insecticide doses, alone and in combination with a fungicide, in O. cornuta and A. mellifera. These experiments show that our assay can detect effects of field-realistic levels of acetamiprid exposure as low as 1-30 ng/bee. The phototaxis assay can be used to obtain relevant ecotoxicological endpoints at low sublethal concentrations in both solitary and honey bees, thus contributing to fill an important gap in bee risk assessment.

ecology↗