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. 2023:39:103438.
doi: 10.1016/j.nicl.2023.103438. Epub 2023 May 19.

The development of the pediatric stroke neuroimaging platform (PEDSNIP)

Affiliations

The development of the pediatric stroke neuroimaging platform (PEDSNIP)

Trish Domi et al. Neuroimage Clin. 2023.

Abstract

Childhood stroke occurs from birth to 18 years of age, ranks among the top ten childhood causes of death, and leaves lifelong neurological impairments. Arterial ischemic stroke in infancy and childhood occurs due to arterial occlusion in the brain, resulting in a focal lesion. Our understanding of mechanisms of injury and repair associated with focal injury in the developing brain remains rudimentary. Neuroimaging can reveal important insights into these mechanisms. In adult stroke population, multi-center neuroimaging studies are common and have accelerated the translation process leading to improvements in treatment and outcome. These studies are centered on the growing evidence that neuroimaging measures and other biomarkers (e.g., from blood and cerebrospinal fluid) can enhance our understanding of mechanisms of risk and injury and be used as complementary outcome markers. These factors have yet to be studied in pediatric stroke because most neuroimaging studies in this population have been conducted in single-centred, small cohorts. By pooling neuroimaging data across multiple sites, larger cohorts of patients can significantly boost study feasibility and power in elucidating mechanisms of brain injury, repair and outcomes. These aims are particularly relevant in pediatric stroke because of the decreased incidence rates and the lack of mechanism-targeted trials. Toward these aims, we developed the Pediatric Stroke Neuroimaging Platform (PEDSNIP) in 2015, funded by The Brain Canada Platform Support Grant, to focus on three identified neuroimaging priorities. These were: developing and harmonizing multisite clinical protocols, creating the infrastructure and methods to import, store and organize the large clinical neuroimaging dataset from multiple sites through the International Pediatric Stroke Study (IPSS), and enabling central searchability. To do this, developed a two-pronged approach that included building 1) A Clinical-MRI Data Repository (standard of care imaging) linked to clinical data and longitudinal outcomes and 2) A Research-MRI neuroimaging data set acquired through our extensive collaborative, multi-center, multidisciplinary network. This dataset was collected prospectively in eight North American centers to test the feasibility and implementation of harmonized advanced Research-MRI, with the addition of clinical information, genetic and proteomic studies, in a cohort of children presenting with acute ischemic stroke. Here we describe the process that enabled the development of PEDSNIP built to provide the infrastructure to support neuroimaging research priorities in pediatric stroke. Having built this Platform, we are now able to utilize the largest neuroimaging and clinical data pool on pediatric stroke data worldwide to conduct hypothesis-driven research. We are actively working on a bioinformatics approach to develop predictive models of risk, injury and repair and accelerate breakthrough discoveries leading to mechanism-targeted treatments that improve outcomes and minimize the burden following childhood stroke. This unique transformational resource for scientists and researchers has the potential to result in a paradigm shift in the management, outcomes and quality of life in children with stroke and their families, with far-reaching benefits for other brain conditions of people across the lifespan.

Keywords: Data platform; MRI; Multi-center study; Neuroimaging; Pediatricstroke.

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Conflict of interest statement

Declaration of Competing Interest The authors declare that they have no known competing financial interests or personal relationships that could have appeared to influence the work reported in this paper.

Figures

Fig. 1
Fig. 1
Imaging intake workflow for clinical images for the IPSS-SILC Imaging Repository.

References

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Further reading

    1. Sporns P.B., Sträter R., Minnerup J., Wiendl H., Hanning U., Chapot R., Henkes H., Henkes E., Grams A., Dorn F., Nikoubashman O., Wiesmann M., Bier G., Weber A., Broocks G., Fiehler J., Brehm A., Psychogios M., Kaiser D., Yilmaz U., Morotti A., Marik W., Nolz R., Jensen-Kondering U., Schmitz B., Schob S., Beuing O., Götz F., Trenkler J., Turowski B., Möhlenbruch M., Wendl C., Schramm P., Musolino P., Lee S., Schlamann M., Radbruch A., Rübsamen N., Karch A., Heindel W., Wildgruber M., Kemmling A. Feasibility, Safety, and Outcome of Endovascular Recanalization in Childhood Stroke: The Save ChildS Study. JAMA Neurol. 2020;77(1):25–34. doi: 10.1001/jamaneurol.2019.3403. PMID: 31609380; PMCID: PMC6802048. - DOI - PMC - PubMed

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