3-D Pancreatic Cancer Organoid May Help Predict Clinical Responses, Nature Medicine Publishes
3-D pancreatic cancer organoid may help predict clinical responses, personalize treatments
Clonally derived organoids could be used to ID patient-specific sensitivities to novel therapeutics BOSTON - The development of a new method to grow three-dimensional organoid cultures of pancreatic tumors directly from patients' surgical tissue offers a promising opportunity for testing targeted therapies and drug responses and personalizing treatments in a rapid, cost-effective manner. The findings are currently reported in the Advance Online issue of the journal Nature Medicine. "These 3D organoids are, essentially, 'mini tumors' in a culture dish," explains the study's corresponding author Senthil Muthuswamy, PhD, Director of the Cell Biology Program in the Cancer Research Institute at Beth Israel Deaconess Medical Center (BIDMC) and Visiting Professor at Harvard Medical School. "The organoids have the same properties or traits that are seen in the patient tumor from which they came and, therefore, can serve as an innovative platform for both cancer research and for cancer treatment."
Scientists have been growing cells in 3D culture for decades. These models are used to help understand various biological processes such as tissue development and cancer growth, and Muthuswamy's laboratory has spent the past 15 years growing normal and cancer-derived cells from human breast tissue as 3D organoids.
This new paper provides an innovative new direction for this technology. "We have now developed a new methodology to grow human pancreatic tumor cells from surgical tissues and have demonstrated that these tumor organoids recreate both morphology and biology of the cancer tissue in the patient," says Muthuswamy, who conducted this research while at the University of Toronto. The research team also demonstrated that these clonally derived organoids could be used to identify patient-specific sensitivities to novel therapeutic agents.
"From a research point of view, this organoid approach now provides us with a 'live' biobank of tissue for discovery and validation of new drugs and targets and modeling resistance to therapy," says Muthuswamy. "By using a cohort of patient samples from which we can screen for drugs and mutations, we can begin to understand why some patients respond to a treatment while others do not, and can thereby avoid giving patients unnecessary or ineffective treatments. And from a clinical point of view, this approach could help assist patients and their oncologists in making treatment decisions."
"Pancreatic cancer is a terrible disease," said Pier Paolo Pandolfi, MD, PhD, Director of the BIDMC Cancer Center. "Patients diagnosed with locally advanced or metastatic pancreatic cancer have a survival rate of less than three percent. Early detection methods and new treatment strategies are desperately needed. These new pancreatic progenitor organoids and tumor organoids can be used to model pancreatic cancer and for drug screening to identify precision therapy strategies."
###
Study coauthors include first author Ling Huang, a postdoctoral fellow in the Muthuswamy lab in the BIDMC Cancer Research Institute. University of Toronto Pancreatic Cancer Surgeon Steven Gallinger, also a study coauthor, played an active role in this work by enabling timely access to tumor tissues. Other coauthors include Audrey Holtzinger, Ishann Jagan, Michael BeGora, Ines Lohse, Nicholas Ngai, Cristina Nostro, Lakshmi B. Muthuswamy, Cheryl Arrowsmith, Michael Roehrl, and Gordon Keller.
This work was originally performed at Princess Margaret Cancer Centre, University Health Network, Toronto, Canada and is now being pursued and expanded at the Cancer Research Institute in the BIDMC Cancer Center. Support for this research was provided by the Ontario Institute for Cancer Research PanCuRx; Canadian Cancer Society; Lee K Margaret Lau Chair for Breast Cancer Research and Campbell Family Institute for Breast Cancer Research and the Ontario Ministry of Health and Long Term Care.
Beth Israel Deaconess Medical Center is a patient care, teaching and research affiliate of Harvard Medical School and consistently ranks as a national leader among independent hospitals in National Institutes of Health funding.
BIDMC is in the community with Beth Israel Deaconess Hospital-Milton, Beth Israel Deaconess Hospital-Needham, Beth Israel Deaconess Hospital-Plymouth, Anna Jaques Hospital, Cambridge Health Alliance, Lawrence General Hospital, Signature Healthcare, Beth Israel Deaconess HealthCare, Community Care Alliance and Atrius Health. BIDMC is also clinically affiliated with the Joslin Diabetes Center and Hebrew Rehabilitation Center and is a research partner of Dana-Farber/Harvard Cancer Center and The Jackson Laboratory. BIDMC is the official hospital of the Boston Red Sox. For more information, visit http://www.bidmc.org.
Media Contact
Bonnie Prescott
bprescot@bidmc.harvard.edu
617-667-7306
Help employers find you! Check out all the jobs and post your resume.
Clonally derived organoids could be used to ID patient-specific sensitivities to novel therapeutics BOSTON - The development of a new method to grow three-dimensional organoid cultures of pancreatic tumors directly from patients' surgical tissue offers a promising opportunity for testing targeted therapies and drug responses and personalizing treatments in a rapid, cost-effective manner. The findings are currently reported in the Advance Online issue of the journal Nature Medicine. "These 3D organoids are, essentially, 'mini tumors' in a culture dish," explains the study's corresponding author Senthil Muthuswamy, PhD, Director of the Cell Biology Program in the Cancer Research Institute at Beth Israel Deaconess Medical Center (BIDMC) and Visiting Professor at Harvard Medical School. "The organoids have the same properties or traits that are seen in the patient tumor from which they came and, therefore, can serve as an innovative platform for both cancer research and for cancer treatment."
Scientists have been growing cells in 3D culture for decades. These models are used to help understand various biological processes such as tissue development and cancer growth, and Muthuswamy's laboratory has spent the past 15 years growing normal and cancer-derived cells from human breast tissue as 3D organoids.
This new paper provides an innovative new direction for this technology. "We have now developed a new methodology to grow human pancreatic tumor cells from surgical tissues and have demonstrated that these tumor organoids recreate both morphology and biology of the cancer tissue in the patient," says Muthuswamy, who conducted this research while at the University of Toronto. The research team also demonstrated that these clonally derived organoids could be used to identify patient-specific sensitivities to novel therapeutic agents.
"From a research point of view, this organoid approach now provides us with a 'live' biobank of tissue for discovery and validation of new drugs and targets and modeling resistance to therapy," says Muthuswamy. "By using a cohort of patient samples from which we can screen for drugs and mutations, we can begin to understand why some patients respond to a treatment while others do not, and can thereby avoid giving patients unnecessary or ineffective treatments. And from a clinical point of view, this approach could help assist patients and their oncologists in making treatment decisions."
"Pancreatic cancer is a terrible disease," said Pier Paolo Pandolfi, MD, PhD, Director of the BIDMC Cancer Center. "Patients diagnosed with locally advanced or metastatic pancreatic cancer have a survival rate of less than three percent. Early detection methods and new treatment strategies are desperately needed. These new pancreatic progenitor organoids and tumor organoids can be used to model pancreatic cancer and for drug screening to identify precision therapy strategies."
###
Study coauthors include first author Ling Huang, a postdoctoral fellow in the Muthuswamy lab in the BIDMC Cancer Research Institute. University of Toronto Pancreatic Cancer Surgeon Steven Gallinger, also a study coauthor, played an active role in this work by enabling timely access to tumor tissues. Other coauthors include Audrey Holtzinger, Ishann Jagan, Michael BeGora, Ines Lohse, Nicholas Ngai, Cristina Nostro, Lakshmi B. Muthuswamy, Cheryl Arrowsmith, Michael Roehrl, and Gordon Keller.
This work was originally performed at Princess Margaret Cancer Centre, University Health Network, Toronto, Canada and is now being pursued and expanded at the Cancer Research Institute in the BIDMC Cancer Center. Support for this research was provided by the Ontario Institute for Cancer Research PanCuRx; Canadian Cancer Society; Lee K Margaret Lau Chair for Breast Cancer Research and Campbell Family Institute for Breast Cancer Research and the Ontario Ministry of Health and Long Term Care.
Beth Israel Deaconess Medical Center is a patient care, teaching and research affiliate of Harvard Medical School and consistently ranks as a national leader among independent hospitals in National Institutes of Health funding.
BIDMC is in the community with Beth Israel Deaconess Hospital-Milton, Beth Israel Deaconess Hospital-Needham, Beth Israel Deaconess Hospital-Plymouth, Anna Jaques Hospital, Cambridge Health Alliance, Lawrence General Hospital, Signature Healthcare, Beth Israel Deaconess HealthCare, Community Care Alliance and Atrius Health. BIDMC is also clinically affiliated with the Joslin Diabetes Center and Hebrew Rehabilitation Center and is a research partner of Dana-Farber/Harvard Cancer Center and The Jackson Laboratory. BIDMC is the official hospital of the Boston Red Sox. For more information, visit http://www.bidmc.org.
Media Contact
Bonnie Prescott
bprescot@bidmc.harvard.edu
617-667-7306
Help employers find you! Check out all the jobs and post your resume.