TY - JOUR
T1 - Opposing roles of hepatic stellate cell subpopulations in hepatocarcinogenesis
AU - Filliol, Aveline
AU - Saito, Yoshinobu
AU - Nair, Ajay
AU - Dapito, Dianne H.
AU - Yu, Le Xing
AU - Ravichandra, Aashreya
AU - Bhattacharjee, Sonakshi
AU - Affo, Silvia
AU - Fujiwara, Naoto
AU - Su, Hua
AU - Sun, Qiuyan
AU - Savage, Thomas M.
AU - Wilson-Kanamori, John R.
AU - Caviglia, Jorge M.
AU - Chin, Li Kang
AU - Chen, Dongning
AU - Wang, Xiaobo
AU - Caruso, Stefano
AU - Kang, Jin Ku
AU - Amin, Amit Dipak
AU - Wallace, Sebastian
AU - Dobie, Ross
AU - Yin, Deqi
AU - Rodriguez-Fiallos, Oscar M.
AU - Yin, Chuan
AU - Mehal, Adam
AU - Izar, Benjamin
AU - Friedman, Richard A.
AU - Wells, Rebecca G.
AU - Pajvani, Utpal B.
AU - Hoshida, Yujin
AU - Remotti, Helen E.
AU - Arpaia, Nicholas
AU - Zucman-Rossi, Jessica
AU - Karin, Michael
AU - Henderson, Neil C.
AU - Tabas, Ira
AU - Schwabe, Robert F.
N1 - Funding Information:
This work was supported by grants R01CA190844 and R01CA228483 (to R.F.S.) and R01DK116620 (to R.F.S. and I.T.) and the Columbia University Digestive and Liver Disease Research Center (1P30DK132710) and its Bioinformatics and Single Cell Analysis Core. J.Z.-R. was supported by the Ligue Nationale contre le Cancer (Equipe Labellisée) and Labex OncoImmunology (Investissement d’avenir). N.C.H. is supported by a Wellcome Trust Senior Research Fellowship in Clinical Science (ref. 219542/Z/19/Z), the Medical Research Council and a Chan Zuckerberg Initiative Seed Network Grant. Y.H. was supported by NIH grant CA233794 and Cancer Prevention and Research Institute of Texas grant RR180016. B.I. was supported by NIH grants R37CA258829 and R21CA263381. These studies used the resources of the Herbert Irving Comprehensive Cancer Center at Columbia University. The Flow Core, Molecular Pathology and Confocal and Specialized Microscopy shared resources are funded in part through NIH grants P30CA013696 and S10OD020056. A.F. was funded by a Foundation pour la Recherche Medicale postdoctoral fellowship (SPE20170336778), an American Liver Foundation Postdoctoral Research Award, an International Liver Cancer Association’s Fellowship and the Mandl Connective Tissue Research Fellowship. Y.S. is supported by the Uehara Memorial Foundation and the Naomi Berrie Diabetes Center Russell Berrie Foundation. D.D. is supported by F31 DK091980. S.B. is funded by Deutsche Forschungsgemeinschaft grant GZ:BH 155/1-1. S.A. was funded by an American Liver Foundation Postdoctoral Research Fellowship Award, a Cholangiocarcinoma Foundation’s Innovation Award and a Research Scholar Award from the American Gastroenterological Association. We thank E. Monuki (University of California, Irvine) for the Lhx2-floxed mice; M. Mack (University of Regensburg, Germany) for the Col1a1-floxed mice; R. Kalluri for the αSMA-TK mice; Y. Yamaguchi (Stamford Burnham Prebys Medical Discovery Institute, La Jolla) for the Has2-floxed mice; and E. Seki (University of California, Los Angeles), C. Hernandez (The University of Birmingham, UK) and C. Kuntzen (Columbia University) for scientific support and discussions.
Funding Information:
This work was supported by grants R01CA190844 and R01CA228483 (to R.F.S.) and R01DK116620 (to R.F.S. and I.T.) and the Columbia University Digestive and Liver Disease Research Center (1P30DK132710) and its Bioinformatics and Single Cell Analysis Core. J.Z.-R. was supported by the Ligue Nationale contre le Cancer (Equipe Labellisée) and Labex OncoImmunology (Investissement d’avenir). N.C.H. is supported by a Wellcome Trust Senior Research Fellowship in Clinical Science (ref. 219542/Z/19/Z), the Medical Research Council and a Chan Zuckerberg Initiative Seed Network Grant. Y.H. was supported by NIH grant CA233794 and Cancer Prevention and Research Institute of Texas grant RR180016. B.I. was supported by NIH grants R37CA258829 and R21CA263381. These studies used the resources of the Herbert Irving Comprehensive Cancer Center at Columbia University. The Flow Core, Molecular Pathology and Confocal and Specialized Microscopy shared resources are funded in part through NIH grants P30CA013696 and S10OD020056. A.F. was funded by a Foundation pour la Recherche Medicale postdoctoral fellowship (SPE20170336778), an American Liver Foundation Postdoctoral Research Award, an International Liver Cancer Association’s Fellowship and the Mandl Connective Tissue Research Fellowship. Y.S. is supported by the Uehara Memorial Foundation and the Naomi Berrie Diabetes Center Russell Berrie Foundation. D.D. is supported by F31 DK091980. S.B. is funded by Deutsche Forschungsgemeinschaft grant GZ:BH 155/1-1. S.A. was funded by an American Liver Foundation Postdoctoral Research Fellowship Award, a Cholangiocarcinoma Foundation’s Innovation Award and a Research Scholar Award from the American Gastroenterological Association. We thank E. Monuki (University of California, Irvine) for the Lhx2 -floxed mice; M. Mack (University of Regensburg, Germany) for the Col1a1 -floxed mice; R. Kalluri for the αSMA-TK mice; Y. Yamaguchi (Stamford Burnham Prebys Medical Discovery Institute, La Jolla) for the Has2 -floxed mice; and E. Seki (University of California, Los Angeles), C. Hernandez (The University of Birmingham, UK) and C. Kuntzen (Columbia University) for scientific support and discussions.
Publisher Copyright:
© 2022, The Author(s), under exclusive licence to Springer Nature Limited.
PY - 2022/10/13
Y1 - 2022/10/13
N2 - Hepatocellular carcinoma (HCC), the fourth leading cause of cancer mortality worldwide, develops almost exclusively in patients with chronic liver disease and advanced fibrosis1,2. Here we interrogated functions of hepatic stellate cells (HSCs), the main source of liver fibroblasts3, during hepatocarcinogenesis. Genetic depletion, activation or inhibition of HSCs in mouse models of HCC revealed their overall tumour-promoting role. HSCs were enriched in the preneoplastic environment, where they closely interacted with hepatocytes and modulated hepatocarcinogenesis by regulating hepatocyte proliferation and death. Analyses of mouse and human HSC subpopulations by single-cell RNA sequencing together with genetic ablation of subpopulation-enriched mediators revealed dual functions of HSCs in hepatocarcinogenesis. Hepatocyte growth factor, enriched in quiescent and cytokine-producing HSCs, protected against hepatocyte death and HCC development. By contrast, type I collagen, enriched in activated myofibroblastic HSCs, promoted proliferation and tumour development through increased stiffness and TAZ activation in pretumoural hepatocytes and through activation of discoidin domain receptor 1 in established tumours. An increased HSC imbalance between cytokine-producing HSCs and myofibroblastic HSCs during liver disease progression was associated with increased HCC risk in patients. In summary, the dynamic shift in HSC subpopulations and their mediators during chronic liver disease is associated with a switch from HCC protection to HCC promotion.
AB - Hepatocellular carcinoma (HCC), the fourth leading cause of cancer mortality worldwide, develops almost exclusively in patients with chronic liver disease and advanced fibrosis1,2. Here we interrogated functions of hepatic stellate cells (HSCs), the main source of liver fibroblasts3, during hepatocarcinogenesis. Genetic depletion, activation or inhibition of HSCs in mouse models of HCC revealed their overall tumour-promoting role. HSCs were enriched in the preneoplastic environment, where they closely interacted with hepatocytes and modulated hepatocarcinogenesis by regulating hepatocyte proliferation and death. Analyses of mouse and human HSC subpopulations by single-cell RNA sequencing together with genetic ablation of subpopulation-enriched mediators revealed dual functions of HSCs in hepatocarcinogenesis. Hepatocyte growth factor, enriched in quiescent and cytokine-producing HSCs, protected against hepatocyte death and HCC development. By contrast, type I collagen, enriched in activated myofibroblastic HSCs, promoted proliferation and tumour development through increased stiffness and TAZ activation in pretumoural hepatocytes and through activation of discoidin domain receptor 1 in established tumours. An increased HSC imbalance between cytokine-producing HSCs and myofibroblastic HSCs during liver disease progression was associated with increased HCC risk in patients. In summary, the dynamic shift in HSC subpopulations and their mediators during chronic liver disease is associated with a switch from HCC protection to HCC promotion.
UR - http://www.scopus.com/inward/record.url?scp=85139422473&partnerID=8YFLogxK
UR - http://www.scopus.com/inward/citedby.url?scp=85139422473&partnerID=8YFLogxK
U2 - 10.1038/s41586-022-05289-6
DO - 10.1038/s41586-022-05289-6
M3 - Article
C2 - 36198802
AN - SCOPUS:85139422473
SN - 0028-0836
VL - 610
SP - 356
EP - 365
JO - Nature
JF - Nature
IS - 7931
ER -