Metabolic Adaptation to Nutritional Stress in Human Colorectal Cancer

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作者
Masaaki Miyo
Masamitsu Konno
Naohiro Nishida
Toshinori Sueda
Kozo Noguchi
Hidetoshi Matsui
Hugh Colvin
Koichi Kawamoto
Jun Koseki
Naotsugu Haraguchi
Junichi Nishimura
Taishi Hata
Noriko Gotoh
Fumio Matsuda
Taroh Satoh
Tsunekazu Mizushima
Hiroshi Shimizu
Yuichiro Doki
Masaki Mori
Hideshi Ishii
机构
[1] Department of Gastroenterological Surgery Osaka University Graduate School of Medicine,Department of Cancer Profiling Discovery
[2] Department of Frontier Science for Cancer and Chemotherapy Osaka University Graduate School of Medicine,undefined
[3] Faculty of Mathematics Kyushu University,undefined
[4] Osaka University Graduate School of Medicine,undefined
[5] Cancer Research Institute of Kanazawa University,undefined
[6] Graduate School of Information Science and Technology,undefined
[7] Osaka University,undefined
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摘要
Tumor cells respond to their microenvironment, which can include hypoxia and malnutrition, and adapt their metabolism to survive and grow. Some oncogenes are associated with cancer metabolism via regulation of the related enzymes or transporters. However, the importance of metabolism and precise metabolic effects of oncogenes in colorectal cancer remain unclear. We found that colorectal cancer cells survived under the condition of glucose depletion, and their resistance to such conditions depended on genomic alterations rather than on KRAS mutation alone. Metabolomic analysis demonstrated that those cells maintained tricarboxylic acid cycle activity and ATP production under such conditions. Furthermore, we identified pivotal roles of GLUD1 and SLC25A13 in nutritional stress. GLUD1 and SLC25A13 were associated with tumor aggressiveness and poorer prognosis of colorectal cancer. In conclusion, GLUD1 and SLC25A13 may serve as new targets in treating refractory colorectal cancer which survive in malnutritional microenvironments.
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