Kivanc birsoy the rockefeller university

Monday Lectures. Laboratory of Metabolic Regulation and Genetics. Jun 25, Squalene accumulation in cholesterol auxotrophic lymphomas prevents oxidative cell death. Phillips, Richard E. Target identification reveals lanosterol synthase as a vulnerability in glioma.

Bayraktar, Erol C. MITO-Tag Mice enable rapid isolation and multimodal profiling of mitochondria from specific cell types in vivo. Aspartate is a limiting metabolite for cancer cell proliferation under hypoxia and in tumours. Reczek, Colleen R. Chen, Walter W. Monday May 20, Previous Next. About the Author: Ilaria Ceglia. Ilaria Ceglia, Ph. As science liaison between the Rockefeller scientific community and the library, Ilaria assists Rockefeller scientists find, and effectively use, the scholarly communication tools available at the library, provides customized literature searching, delivers research information reports and publications metric analysis to enhance collaborations between Rockefeller and leading scientific institutions, provides access to digital content to manage large data freely accessible.

Ilaria manages a drug development database to perform clinical literature searches and drugs pipeline reports for Rockefeller research faculty, scientists and clinicians. Her role also includes evaluate and select new databases to complement other resource center services, organize tutorial training sessions in areas of life sciences and on the use of reference management platforms F Workspace, Scopus, Web of Science and PubMed literature searching, managing recommendation readings library blog for lectures and special seminars.

Ilaria is a neuroscientist and a former Rockefeller postdoctoral and research associate of Dr. As an Italian expat living in New York, Ilaria is an enthusiastic proponent of Italian culture among friends and colleagues. Related Posts. Recommended Readings: Job Dekker, Ph.Cut it out, poison it, blast it with radiation, shower it with killer immune cells—they all get the job done. But there is a shortage of good ways to kill cancer cells.

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Until we do, cancer will continue to kill, and the medicine that stops it will continue to hurt. He wants to simply stop feeding them and let them die. Birsoy, the Chapman Perelman Assistant Professorhas taken this simple premise—that cancer cells need nutrients to survive—and built a sophisticated research program around it.

His work is driven by a vision of the future where patients survive as their tumors, starved of the nutrients they depend on to grow, wither away. The key to defeating cancer cells, he says, is to understand their metabolism. The study of cellular metabolism began almost a century ago and has long been perceived as settled science. The textbooks have been written, the Nobels awarded, and the world has moved on to sexier subjects. Then we devise a way to deprive them of it.

When it comes to metabolism, cancer cells are remarkably adaptable. They have several tricks they can employ to maintain their growth, even in the face of inhospitable conditions that would leave other cells lifeless. Deprived of sufficient blood flow due to a heart attack or stroke, those normal tissues die. But cancer cells are somehow able to hunker down and pull through, and, having survived these hostile conditions, they go on to thrive and multiply.

And it is here that Birsoy sees an opportunity. Cancer cells grow fast. In fact, their ability to grow and divide rapidly, and outpace the cells of healthy tissue, is exactly what makes them so deadly. But fast can mean sloppy. Despite their varied diet, they find themselves facing a scarcity of the oxygen and nutrients they need to survive. Kills or slows the growth of quickly dividing cells, including cancer cells, but tends to cause unwanted side effects by also harming normal cells.

Uses high doses of ionizing radiation to destroy DNA, especially in quickly dividing cells. Like chemotherapy, it comes with the risk of damaging healthy cells. Shrinks or gets rid of tumors confined to one area by using scalpels, lasers, liquid nitrogen, electrical currents, or robots.

They hope this will provide another asset in the cancer-fighting tool kit, potentially in combination with others.

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In an experiment, Birsoy subjected 28 cancer cells lines derived from patients to low oxygen conditions. None of them were able to synthesize an amino acid called aspartate, which they require to grow.

But six of the 28 overcame this hindrance by altering their metabolism and ingesting aspartate from their surroundings. And having successfully outsourced aspartate production to their neighbors, these cells continued to grow, divide, and proliferate.

The findings excite Birsoy for two reasons.

kivanc birsoy the rockefeller university

First, they provide clear-cut evidence supporting the general hypothesis that cancer cells are able to alter their metabolism to get the nutrients they need to grow.Assistant Professor. Head of Laboratory of Metabolic Regulation and Genetics. There, he combined forward genetics and metabolomics approaches to understand how different cancer types rewire their metabolism to adapt nutrient deprived environments.

He also used similar approaches to study how mitochondrial dysfunction influences cellular metabolism. Lou received her undergraduate degree in biology with a specialization in molecular and cellular biology, from Laval University, Canada.

Eiko Nishiuchi, MS. Eiko was born and raised in Yokohama, Japan. She joined the Birsoy lab in She loves to explore the intricacy of human body movements and shares her own experience and practice in her yoga class. Postdoctoral Associates. Postdoctoral Associate. D, Universidad Autonoma of Madrid. Javier received his undergraduate and graduate degree in Biochemistry from the Universidad Autonoma de Madrid, where he studied the role of PKA in the regulation of mitochondrial metabolism.

He is studying the impact of hypoxia on cancer cell metabolism. D, Vanderbilt University.

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Then, he moved to Vanderbilt University to get his PhD, studying protein trafficking pathways and genetic disease models in zebrafish. Inhe joined the Birsoy lab as a postdoctoral fellow. D, Fudan University, Ph. D, Columbia University. Graduate Fellows. Graduate Student. She joined the Birsoy lab in April and continues working to understand how cancer cells cope with lipid oxidation stress.

After graduation, she worked as a research assistant in the lab of Dr.

kivanc birsoy the rockefeller university

She joined the Birsoy lab in to study glutathione metabolism. MD PhD Student. BS, Massachusetts Institute of Technology.Science and medicine are entering an explosive era of discovery, fueled by technological advances and the impact of new translational opportunities that are speeding up the timeline between scientific discovery and clinical application.

Postdoctoral position

The environment at Rockefeller is perfect for developing a deep relationship between innovation, basic biology, and the understanding of human health and disease. Today we are witnessing a remarkable convergence of science and medicine. Basic scientists are making fundamental discoveries that illuminate the causes of human health and disease, while studies of patients are revealing unanticipated biological mechanisms in disease causation.

This cross-fertilization is accelerating our understanding of basic biology and offering new opportunities to prevent, treat, and cure disease. The impact on human health will be truly transformational.

Rockefeller University and its preeminent research hospital are uniquely positioned to lead this revolution.

Recommended Readings: Kivanç Birsoy, Ph.D. Monday May 20, 2019

With your help, our faculty can seize the opportunities on the horizon. Together, we can create a healthier world today and for generations to come. Rockefeller was founded with a singular mission— science for the benefit of humanity. Great basic science has the potential to improve human health and provides the surest route to effective disease prevention and treatment. Thanks to unparalleled scientific freedom, Rockefeller scientists can conduct the type of groundbreaking foundational research that leads to innovative therapeutic discovery.

President Richard P. Lifton and Board Chair William E. Over the past decade, Rockefeller has made substantial investments in creating the ideal environment for translational research.

The — Strategic Plan for The Rockefeller University, adopted by the Board of Trustees in Novembercalls for a broad array of initiatives to capitalize on the convergence of science and medicine. High-risk research that aims for high rewards sets Rockefeller apart from mainstream science where success is measured in smaller increments.

We hire only the most creative investigators and provide them with the scientific freedom and the financial resources to pursue novel research. Annual core grants act as venture capital, enabling our lab heads to pursue bold questions. This innovation funding would not be possible without the support of generous benefactors who underwrite named chairs and laboratories.

At Rockefeller, we are all motivated by a common mission. We all share the same passion and thrill for exploring the unknown and defining the elusive. Rockefeller has developed a thriving model for transforming basic research into clinical application. This includes competitive funding mechanisms and expert assistance for navigating the therapeutic pipeline. Building on the momentum created by these forward-looking ventures, the university will expand this translational ecosystem.

A new Therapeutic Discovery Fund will bridge the gap between breakthrough science and the development of new medicines through several grant mechanisms.

An on-site Translational Research Accelerator will foster synergy between innovative research, bioengineering, and entrepreneurship, with move-in ready laboratory and office space for 15 to 20 start-up companies.

Thanks to the incredibly supportive environment at Rockefeller, my research team was able to develop two potential cancer therapeutics that are now in clinical trials.

It has always been my dream to have my science help patients. Solving complex scientific problems requires an integration of disciplines, technologies, and expertise. The Campaign for the Convergence of Science and Medicine seeks to create six new interdisciplinary centers at Rockefeller. These include:. Paradigm-shifting technologies are radically changing the way research is conducted, fueling progress toward discoveries that could barely be imagined even five years ago.

A generation of scientific breakthroughs will be dependent on new tools and instruments. For Rockefeller to sustain its extraordinary scientific pace, support for the timely acquisition of new technologies must be a priority. Rockefeller provides an extraordinary environment that allows a singular focus on science.

Reliable on-site childcare is vital to scientific achievement—a reality underscored by the pandemic. We now have the roadmap for translating scientific discoveries into new medicines.

With your help, Rockefeller can seize the opportunities on the horizon.

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Together, we can create a healthier world for today and for generations to follow.The Birsoy lab studies how metabolic pathways regulate biological processes and contribute to diseases including cancer, mitochondrial disorders, and inborn errors of metabolism. Using genetic and metabolomic tools, Birsoy studies the mechanisms by which human cells alter their uptake and use of nutrients to adapt to the genetic and environmental stresses observed in these disorders.

Through a series of chemical reactions collectively known as metabolism, an organism extracts and harnesses energy from organic matter.

While the core components of this process are relatively well understood, little is known about how an individual cell rewires its metabolic pathways under varying circumstances, including disease. His group studies cellular metabolism in the contexts of cancer, mitochondrial disorders, and inborn errors of metabolism. There is increasing evidence that genetic alterations modify the metabolic program of cells.

Since cancer cells are dependent on these changes in metabolism for proliferation, there has been a great interest in exploiting these metabolic liabilities for cancer therapy. Subsequent experiments showed that these mutations conferred susceptibility to mitochondrial inhibition by biguanides, a class of diabetes drugs. Understanding the molecular basis for these dependencies will help unveil new metabolic programs and may aid in the development of innovative strategies for cancer treatment, including traditional compounds designed to inhibit intracellular enzymes as well as nutritional approaches to eliminate cancer-feeding metabolites from the blood.

Birsoy is also interested in understanding mitochondrial dysfunction, a common feature of many diseases including cancer and mitochondrial disorders.

Current therapies are limited for mitochondrial disorders, which are characterized by multi-organ dysfunction, and symptom management remains the primary treatment option.

kivanc birsoy the rockefeller university

This is due in part to a lack of validated drug targets and the absence of relevant disease models. In addition, the Birsoy lab studies inborn errors of metabolism, rare genetic disorders like organic acidurias, in which metabolites accumulate to toxic levels. This metabolite buildup causes a wide array of symptoms, including damage to the liver and brain. A fuller understanding of these mechanisms may lead to novel therapeutic strategies for rare genetic disorders. Programand the Tri-Institutional Ph.

Birsoy, K. An essential role of the mitochondrial electron transport chain in cell proliferation is to enable aspartate synthesis. Cell— Metabolic determinants of cancer cell sensitivity to glucose limitation and biguanides. Nature— Chen, W. Inhibition of ATPIF1 ameliorates severe mitochondrial respiratory chain dysfunction in mammalian cells. Cell Rep. MCT1-mediated transport of a toxic molecule is an effective strategy for targeting glycolytic tumors.

Untuning the tumor metabolic machine: targeting cancer metabolism: a bedside lesson.Laboratory of Metabolic Regulation and Genetics at the Rockefeller University seeks candidates for the position of Postdoctoral Associate.

Projects in the Birsoy lab focus on characterization of the role of specific metabolic pathways in cancer and rare metabolic disorders. The candidate should have a PhD. D degree and a strong publication record. Experience with in vivo tumor models is expected but not required. This is particularly relevant in the context of tumors. Cancer metabolic dependencies have previously been exploited for a handful of pathways, but uncovering metabolic liabilities comprehensively requires more systematic approaches such as functional genomics.

Long term research goal of Birsoy lab is to understand how metabolic pathways in cancer cells are rewired by the nutrient environment through the use of systematic forward genetic approaches i.

kivanc birsoy the rockefeller university

CRISPR-Cas9 technology and, further, to determine whether these pathways present metabolic liabilities that could be exploited for anti-cancer therapy. Interested individuals should send a CV and three reference letters to Dr. Kivanc Birsoy kbirsoy rockefeller.

More info here. Postdoctoral position.This honor is presented annually to encourage and support emerging to mid-career immigrant scientists who have demonstrated exceptional achievements early in their careers. His work aims to understand which metabolic pathways or which nutrients are used by particular cancer types, and to develop novel ways to target these pathways and use them for therapeutic purposes. Because cancer cells are uniquely resourceful in their ability to usurp resources and proliferate, Birsoy has fashioned biomedical tools, including CRISPR, to probe their complex metabolism.

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His studies have provided new insights into how cancer cells respond to the nutrient- and oxygen-deprived environments of tumors, and he has identified unexpected dependencies that they have that are required for cancer cell proliferation.

Recently, he has found evidence that the synthesis of aspartate is critical to the growth of some tumors and that a form of lymphoma depends upon uptake of LDL cholesterol from the blood plasma for survival.

The Vilcek Foundation, established in by Czechoslovakian immigrants, honors immigrant contributions to the United States, and more broadly, fosters appreciation of the arts and sciences. Winners of the Vilcek Prizes for Creative Promise are selected through an application process juried by panels of experts in each field.

Birsoy will be honored alongside five other awardees at a ceremony in New York City in April, More info here. Campus News. Awards and Honors.

Interview with Elaine Fuchs, Howard Hughes Medical Institute, Rockefeller University

Recent News. January 20, Scientists have developed stem-cell technology to mass-produce tissue cultures resembling our breathing organs. These tissues offer a powerful model in which to study how SARS-CoV-2 wreaks havoc in the lungs and to screen for new drugs. January 18, The study participants continued to improve their antibodies months after initial infection, potentially due to exposure to remnants of the virus hidden in the gut.

January 15, COVID causes a host of diverse complications, from lung inflammation to blood clots, heart failure, and brain fog.

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