Surgery (RMH) - Research Publications

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    Identification and isolation of slow-cycling glioma stem cells
    Furst, L ; Atkins, RJ ; Dinevska, M ; Stylli, SS ; Corcoran, NM ; Hovens, CM ; Mantamadiotis, T ; Vitale, I ; Manic, G ; Galluzzi, L (ELSEVIER ACADEMIC PRESS INC, 2022)
    Cancer stem cells are defined as low-abundance, quiescent cells and are considered a major cellular source of tumor recurrence following therapy, which identifies these cells as important therapeutic targets for difficult-to-treat cancers, including high-grade gliomas. By contrast to the highly proliferative bulk tumor cells, glioma stem cells (GSC) are slow-cycling, and therefore less sensitive to DNA damaging cytotoxic drugs. GSC are also less reliant on aerobic glycolytic metabolism, leading to inadequate clearing of GSC by chemotherapy and radiotherapy. The definition of GSC is based on the expression of specific stem cell protein markers. This method of GSC isolation is successful in isolating cell populations that can reliably recapitulate the tumor. However, cell populations that lack stem marker expression may also be capable of tumor recapitulation. Therefore, robust, reproducible methods for isolating GSC are required to identify and isolate cells with stem cell characteristics. Here, we provide a comprehensive and reproducible protocol for the isolation of slow-cycling GSC. Using this method, GSC isolated retain key characteristics of the cells in situ, including expression of genes associated with cell quiescence and invasive potential, compared to non-quiescent cell populations. Thus, isolation of GSC gated on cell proliferation offers a reliable alternative method for in vitro GSC identification, that adequately mirrors the physiological properties of GSC seen in vivo.
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    The Use of Human Pluripotent Stem Cells (hPSCs) and CRISPR-Mediated Gene Editing in Retinal Diseases
    Lidgerwood, GE ; Hewitt, AW ; Pébay, A ; Hernández, D ; Prakash, G ; Iwata, T (Springer, 2021)