Joanna Clarke
doi : 10.1038/s41584-021-00712-0
Nature Reviews Rheumatology volume 17, page707 (2021)
Sarah Onuora
doi : 10.1038/s41584-021-00714-y
Nature Reviews Rheumatology volume 17, page707 (2021)
Sarah Onuora
doi : 10.1038/s41584-021-00715-x
Nature Reviews Rheumatology volume 17, page707 (2021)
Sarah Onuora
doi : 10.1038/s41584-021-00716-w
Nature Reviews Rheumatology volume 17, page707 (2021)
Sarah Onuora
doi : 10.1038/s41584-021-00717-9
Nature Reviews Rheumatology volume 17, page707 (2021)
Joseph F. Merola & Alexis Ogdie
doi : 10.1038/s41584-021-00706-y
Nature Reviews Rheumatology volume 17, pages708–709 (2021)
Kathryn M. Kingsmore, Christopher E. Puglisi, Amrie C. Grammer & Peter E. Lipsky
doi : 10.1038/s41584-021-00708-w
Nature Reviews Rheumatology volume 17, pages710–730 (2021)
Machine learning (ML) is a computerized analytical technique that is being increasingly employed in biomedicine. ML often provides an advantage over explicitly programmed strategies in the analysis of multidimensional information by recognizing relationships in the data that were not previously appreciated. As such, the use of ML in rheumatology is increasing, and numerous studies have employed ML to classify patients with rheumatic autoimmune inflammatory diseases (RAIDs) from medical records and imaging, biometric or gene expression data. However, these studies are limited by sample size, the accuracy of sample labelling, and absence of datasets for external validation. In addition, there is potential for ML models to overfit or underfit the data and, thereby, these models might produce results that cannot be replicated in an unrelated dataset. In this Review, we introduce the basic principles of ML and discuss its current strengths and weaknesses in the classification of patients with RAIDs. Moreover, we highlight the successful analysis of the same type of input data (for example, medical records) with different algorithms, illustrating the potential plasticity of this analytical approach. Altogether, a better understanding of ML and the future application of advanced analytical techniques based on this approach, coupled with the increasing availability of biomedical data, may facilitate the development of meaningful precision medicine for patients with RAIDs.
Chetan Sharma, Madhusudan Ganigara, Caroline Galeotti, Joseph Burns, Fernando M. Berganza, Denise A. Hayes, Davinder Singh-Grewal, Suman Bharath, Sujata Sajjan & Jagadeesh Bayry
doi : 10.1038/s41584-021-00709-9
Nature Reviews Rheumatology volume 17, pages731–748 (2021)
Children and adolescents infected with severe acute respiratory syndrome coronavirus 2 (SARS-CoV-2) are predominantly asymptomatic or have mild symptoms compared with the more severe coronavirus disease 2019 (COVID-19) described in adults. However, SARS-CoV-2 is also associated with a widely reported but poorly understood paediatric systemic vasculitis. This multisystem inflammatory syndrome in children (MIS-C) has features that overlap with myocarditis, toxic-shock syndrome and Kawasaki disease. Current evidence indicates that MIS-C is the result of an exaggerated innate and adaptive immune response, characterized by a cytokine storm, and that it is triggered by prior SARS-CoV-2 exposure. Epidemiological, clinical and immunological differences classify MIS-C as being distinct from Kawasaki disease. Differences include the age range, and the geographical and ethnic distribution of patients. MIS-C is associated with prominent gastrointestinal and cardiovascular system involvement, admission to intensive care unit, neutrophilia, lymphopenia, high levels of IFN? and low counts of naive CD4+ T cells, with a high proportion of activated memory T cells. Further investigation of MIS-C will continue to enhance our understanding of similar conditions associated with a cytokine storm.
Antonios G. A. Kolios, George C. Tsokos & David Klatzmann
doi : 10.1038/s41584-021-00707-x
Nature Reviews Rheumatology volume 17, pages749–766 (2021)
Failure of regulatory T (Treg) cells to properly control immune responses leads invariably to autoimmunity and organ damage. Decreased numbers or impaired function of Treg cells, especially in the context of inflammation, has been documented in many human autoimmune diseases. Restoration of Treg cell fitness and/or expansion of their numbers using low-dose natural IL-2, the main cytokine driving Treg cell survival and function, has demonstrated clinical efficacy in early clinical trials. Genetically modified IL-2 with an extended half-life and increased selectivity for Treg cells is now in clinical development. Administration of IL-2 combined with therapies targeting other pathways involved in the expression of autoimmune diseases should further enhance its therapeutic potential. Ongoing clinical efforts that capitalize on the early clinical success of IL-2 treatment should bring the use of this cytokine to the forefront of biological treatments for autoimmune diseases.
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