Journal List > J Breast Cancer > v.10(3) > 1036067

Hur, Dontu, and Wicha: Cancer Stem Cells

Abstract

Recent results have supported the cancer stem cells hypothesis in which tumors originate from tissue stem cells or their early progenitors and, as a result, produce tumors that retain stem cell properties. These properties include selfrenewal that drives tumorigenesis and differentiation that contributes to cellular heterogeneity. The number of these cells is very small, and is tightly controlled by the self-renewal pathway and the signals of their environment (niche). Evidence for the existence of cancer stem cells has been reported for a number of human cancers including leukemia, cancers of the breast, brain, and colon. Although our understanding of the biology of these cancer stem cells remains rudimentary, the existence of these cells has implications for current conceptualization of malignant transformation and targeted therapy for the treatment of cancer.

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Fig 1.
Detection of PERV RNA in plasma (A) and culture supernatant of PBMC (B) from SNU miniature pig by RT-PCR. (A) M, molecular marker; 1, PK-15; 2, plasma; 3, distilled water control (B) M, molecular marker; 1, PK-15; 2, culture supernatant of PK-15; 3-8, culture supernatant of PBMC treated with PMA, PHA, PMA plus PHA, LPS, PGE2, and media; 9, distilled water control.
jbc-10-173-g001.tif
Fig 2.
Signaling pathways that regulate self-renewal mechanisms during normal stem cell development and during transformation. Wnt, Shh and Notch pathways have been shown to contribute to the self-renewal of stem cells and/or progenitors in a variety of organs, including the hematopoietic and nervous systems. When dysregulated, these pathways can contribute to oncogenesis. Mutations of these pathways have been associated with a number of human tumors, including colon carcinoma and epidermal tumors (Wnt), medulloblastoma and basal cell carcinoma (Shh), and T-cell leukemias (Notch). (Images courtesy of Eye of Science/SPL and R. Wechsler- Reya/M. Scott/Annual reviews.)
jbc-10-173-g002.tif
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