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Intelligence Computing for Challenging Clinical Data: Robust, Practical and Trustworthy

Edited by Honghao Gao, Wenbing Zhao, and Yuyu Yin

Accuracy, efficiency and transferability are realistic issues in clinical practice, and research hotspots as well. Especially in developing countries, the number of clinicians is not enough to meet the population growth. One doctor has to diagnose dozens of patients every day, with traditional clinical methods. In recent years, artificial intelligence (AI) techniques, e.g., deep learning, tend to mature and have been applied in many clinical tasks successfully. Well-designed networks are able to detect various lesions in medical images, such as pulmonary nodule, diabetic retinopathy, and skin cancer. The accuracy and efficiency have also achieved or exceeded human experts. Introducing AI-aided methods to traditional clinical process would help reduce the burden of doctors, or improve diagnostic ability of inexperienced clinicians.

AI can be a sharp tool with sufficient data and deep architectures. But in many circumstances, models only give a simple result without any evidences, which is still unconvincing for clinical use. Moreover, challenging clinical data (small data, imbalanced data in rare diseases, unobvious lesions in early stage, multiple data source with different distributions, etc.) that cannot meet the requirements of AI algorithms are common. Existing intelligent solutions may be unstable or fail for those data. This requires novel computing techniques with robust, practical and trustworthy.

This Special Issue aims to invite original research papers that tackle challenging clinical data and scenarios, including theoretical research, practical models improvement, clinical-oriented data analysis, deployed digital system, and farsighted intelligent architecture. Submitted papers should clarify the substantively different from work that has already been published, or accepted for publication, or submitted in parallel to other conferences or journals. 

  1. Evidence-based medicine propagates that medical/clinical decisions are made by taking into account high-quality evidence, most notably in the form of randomized clinical trials. Evidence-based decision-making ...

    Authors: Olivia Sanchez-Graillet, Christian Witte, Frank Grimm, Steffen Grautoff, Basil Ell and Philipp Cimiano
    Citation: Journal of Biomedical Semantics 2022 13:16
  2. Text mining can be applied to automate knowledge extraction from unstructured data included in medical reports and generate quality indicators applicable for medical documentation. The primary objective of thi...

    Authors: Florent Baty, Jemima Hegermann, Tiziana Locatelli, Claudio Rüegg, Christian Gysin, Frank Rassouli and Martin Brutsche
    Citation: Journal of Biomedical Semantics 2022 13:5
  3. The activation degree of the orbitofrontal cortex (OFC) functional area in drug abusers is directly related to the craving for drugs and the tolerance to punishment. Currently, among the clinical research on d...

    Authors: Xuelin Gu, Banghua Yang, Shouwei Gao, Lin Feng Yan, Ding Xu and Wen Wang
    Citation: Journal of Biomedical Semantics 2021 12:21
  4. Mortality prediction is an important task to achieve smart healthcare, especially for the management of intensive care unit. It can provide a reference for doctors to quickly predict the course of disease and ...

    Authors: Haiyang Yang, Li Kuang and FengQiang Xia
    Citation: Journal of Biomedical Semantics 2021 12:3

Annual Journal Metrics

  • 2022 Citation Impact
    1.9 - 2-year Impact Factor
    2.6 - 5-year Impact Factor
    0.870 - SNIP (Source Normalized Impact per Paper)
    0.697 - SJR (SCImago Journal Rank)

    2023 Speed
    23 days submission to first editorial decision for all manuscripts (Median)
    265 days submission to accept (Median)

    2023 Usage 
    206 Altmetric mentions