ImageNet classification with deep convolutional neural networks
Alex Krizhevsky, Ilya Sutskever et al.
953
Citations
67
Influential Citations
Nature Machine Intelligence
Venue
2021
Year
Abstract To help researchers conduct a systematic review or meta-analysis as efficiently and transparently as possible, we designed a tool to accelerate the step of screening titles and abstracts. For many tasks—including but not limited to systematic reviews and meta-analyses—the scientific literature needs to be checked systematically. Scholars and practitioners currently screen thousands of studies by hand to determine which studies to include in their review or meta-analysis. This is error prone and inefficient because of extremely imbalanced data: only a fraction of the screened studies is relevant. The future of systematic reviewing will be an interaction with machine learning algorithms to deal with the enormous increase of available text. We therefore developed an open source machine learning-aided pipeline applying active learning: ASReview. We demonstrate by means of simulation studies that active learning can yield far more efficient reviewing than manual reviewing while providing high quality. Furthermore, we describe the options of the free and open source research software and present the results from user experience tests. We invite the community to contribute to open source projects such as our own that provide measurable and reproducible improvements over current practice.
Systematic reviews and meta-analyses are foundational to evidence-based research, but they are notoriously labor-intensive, often requiring researchers to manually screen thousands of titles and abstracts. With the exponential growth of scientific publications, this manual approach is becoming unsustainable and error-prone. The ASReview framework addresses this critical bottleneck by integrating machine learning, specifically active learning, into the screening process. This paper is significant because it provides a practical, open-source solution that can be immediately adopted by researchers, potentially saving countless hours and improving the accuracy of literature reviews.
The paper also highlights a broader trend: the integration of AI into scholarly workflows. By demonstrating that active learning can match or exceed manual screening quality while requiring far fewer human decisions, it makes a compelling case for AI-assisted research. The emphasis on transparency and reproducibility is particularly important, as it addresses common concerns about the 'black box' nature of machine learning in academic settings.
The abstract states that active learning can yield 'far more efficient reviewing than manual reviewing while providing high quality.' However, specific quantitative metrics (e.g., percentage reduction in screening effort, recall rates) are not provided in the abstract. The simulation studies likely compare different active learning strategies (e.g., uncertainty sampling, random sampling) against a baseline of manual screening, measuring metrics such as the number of relevant papers found per number of screened papers. The user experience tests likely report on usability and satisfaction, but again, concrete numbers are not included in the abstract.
The ASReview framework has the potential to significantly accelerate the pace of evidence synthesis, which is critical in fields like medicine, psychology, and environmental science. By reducing the manual burden, researchers can focus on higher-level analysis and interpretation. Moreover, the open-source nature of the tool fosters a collaborative ecosystem where improvements can be shared and validated. This paper also contributes to the broader AI field by showcasing a real-world application of active learning that is both impactful and reproducible, setting a precedent for future AI-assisted research tools.
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